Próximos Encuentros de la Meistriliiga de Estonia: Predicciones y Análisis
¡La noche de fútbol de la Meistriliiga de Estonia ya está aquí! Una de las ligas más competitivas de Europa del Este nos presenta emocionantes encuentros esta noche, llenos de acción, goles y momentos inolvidables. En esta guía detallada, exploraremos cada partido, ofreciendo expertas predicciones para todos aquellos que buscan una ventaja en sus apuestas de apuestas. Así que sintoniza, diviértete y prepárate para una noche apasionante.
Jornada de la Meistriliiga: Partidos Destacados
La jornada ofrecerá varios partidos imprescindibles que no debes perderte. Cada encuentro ha sido analizado minuciosamente por expertos en fútbol, quienes han proporcionado sus predicciones basadas en estadísticas detalladas, rendimiento reciente de los equipos y otros factores relevantes. Aquí tienes un resumen de los partidos más emocionantes:
- FC Flora Tallinn vs. Levadia Tallinn: Este es el clásico de Tallin que siempre atrae multitudes. Ambos equipos están luchando codo con codo en la parte superior de la tabla, buscando asegurar un lugar en las competiciones europeas. Predicción: Empate, pero con alto volumen de goles.
- JK Nõmme Kalju vs. Paide Linnameeskond: Un duelo entre dos potencias del fútbol estonio que promete emociones fuertes. Analistas pronostican una victoria ajustada para el Nõmme Kalju.
- Kalju Warrior vs. FCI Levadia II: Partido clave para ambos equipos en posiciones intermedias de la tabla. Se espera que el Kalju Warrior domine el juego y salga con una victoria contundente.
Análisis Técnico de los Partidos Destacados
<|repo_name|>LiYongheng/ISM<|file_sep|>/Programs/particle_app/community/hier_usm.c
#include
/* Community space for hierarchical USM and ULA */
#define CHARS 132
#define MAXLEN 256
#define LINE 30
typedef struct node {
node_t type;
void *parent;
char name[128];
struct node *children;
} node;
typedef union {
node *comm;
gen_chunk_data *gen;
ism_sys *ism;
ism_partition *par;
} node_data;
#define COMMUNITY(name, parent)
node_data node_data_ ## name = {.comm = generate_community(#name, &node_data_ ## parent.comm->ism->root, (char *)#name, sizeof(node_data), NULL, 0, NULL, NULL )}
#define TECH_NAME(name)
static const char *name ## _string = #name;
#define TECH(name)
node_data node_data_ ## name = {.gen = generate_chunk(name ## _string, sizeof(const void *), &node_data_ ## parent.comm->ism->root, NULL, (const void *)NULL)};
#define TOPOLOGY(name)
node_data node_data_ ## name = {.ism = ism_default_topology(name ## _string, &node_data_ ## parent.comm->ism->root, &compute_hier_usm_ ## name)};
#define PARTITION(name)
node_data node_data_ ## name = {.par = ism_default_partition(name ## _string, &node_data_ ## parent.comm->ism->root, &subset_hier_usm_ ## name, NULL) };
// For ism_name_lookup(), used for partition
void ism_init_suffix(void)
{
ism_set_name_suffix("part");
}
TECH_NAME(ULAN)
TECH_NAME(USMN0)
TECH_NAME(USMN1)
TECH_NAME(USMN2)
COMMUNITY(space_init, space_root)
{
}
COMMUNITY(hier_usm0_init, space_init)
{
node_data child0 = {.ism = ism_default_subsystem("sm0", &node_data_space_root.comm->ism->root, NULL)};
node_data_child0 = generate_community("subsys0", &node_data_space_root.comm->ism->root,
(char *)child0.ism, sizeof(node_data), NULL, 0,
&child0.sm0,
NULL);
}
COMMUNITY(hier_usm1_init, hier_usm0_init)
{
node_data child1 = {.ism = ism_default_subsystem("sm0", &node_data_space_root.comm->ism->root, NULL)};
node_data_child1 = generate_community("subsys1", &node_data_space_root.comm->ism->root,
(char *)child1.ism, sizeof(node_data), NULL, 0,
&child1.sm0,
NULL);
}
COMMUNITY(p0_init, hier_usm0_init)
{
node_data child0 = {.tech = TECH_USMN0};
TECH_USMN0 = generate_regular_chunk("T_USMN0", 4*128, sizeof(void *), &node_data_space_root.comm->ism->root, (const void *)&child0.tech.gen);
node_data_child0 = generate_community("fam_USMN0_0", &node_data_space_root.comm->ism->root,
(char *)child0.tech.gen, sizeof(node_data), NULL, 0,
NULL,
&child0.tech.gen);
node_data child1 = {.tech = TECH_USMN1};
TECH_USMN1 = generate_regular_chunk("T_USMN1", 4*128*64, sizeof(void *), &node_data_child0.comm->ism->root, (const void *)&child1.tech.gen);
node_data_child1 = generate_community("fam_USMN1_1", &node_data_child0.comm->ism->root,
(char *)child1.tech.gen, sizeof(node_data), NULL, 0,
NULL,
&child1.tech.gen);
node_data child2 = {.tech= TECH_USMN2};
TECH_USMN2 = generate_regular_chunk("T_USMN2", 4*128*64*64, sizeof(void *), &node_data_child1.comm->ism->root, (const void *)&child2.tech.gen);
node_data_child2 = generate_community("fam_USMN2_2", &node_data_child1.comm->ism->root,
(char *)child2.tech.gen, sizeof(node_data), NULL, 0,
NULL,
&child2.tech.gen);
}
COMMUNITY(p1_init, hierarchy_init)
{
}
TOPOLOGY(hier_usm)
PARTITION(hier_usm_part)
{
}
int main(int argc __unused, char **argv __unused)
{
comm_add_community(&node_data_space_init.comm->ism->root);
ism_std_setup();
printf("Hi!n");
fflush(stdout);
return 0;
}
#ifdef CONF_HIER_USM
static ism_result_t compute_hier_usm_topology(ism_sys *sys __unused)
{
// root
gen_chunk_t p1 = gen_system(sys)->root->children[0]->children;
// partion topology
struct hier_topo {
node_t part;
gen_chunk_t par;
} hier_topo;
struct sys_topo {
ism_sys_part_t part;
gen_chunk_t par;
} sys_topo;
gen_chunk_iterator_t it = { .tuner = NULL };
gen_set_iterator(&it, sys_topo.par);
for (; it.chunk != NULL; it.chunk = gen_next(&it)) {
bool parent = false;
size_t no_part = sys_topo.par[1].num_chunks;
hier_topo.part.type = PARTITION;
hier_topo.part.parent = (void*)&hier_topo;
hier_topo.par = sys_topo.par[1].chunk;
part_id_t part_id = ism_id(&it);
partition_id_t hier_part_id;
if (!parent) {
hier_part_id.root = 0;
parent = true;
} else {
hier_part_id.root = hier_topo.par[it.depth][it.index_local].id;
}
hier_part_id.level = (int)part_id.level;
hier_part_id.pos = (int)part_id.pos;
it.index_global = -1;
while(1) {
it.index_global++;
if (gen_chunk_is_last(&it)) {
break;
}
sys_topo.par[1].chunk[it.index_local+no_part] =
gen_chunk_copy(sys_topo.par[1].chunk[it.index_local]);
}
finalise_gen_chunk(&it.tuner);
}
return ISM_SUCCESS;
}
static ism_partition_item_t subset_hier_usm(ism_partition_item_t par __unused, gen_chunk_t p2 __unused)
{
return par;
}
#endif
<|repo_name|>LiYongheng/ISM<|file_sep|>/Programs/particle_app/headers/particle_app.h
#ifndef __PARTICLE_APP_H__
#define __PARTICLE_APP_H__
#include
#include
#include
#include
#include
#include
#ifdef OUTPUT
#include
#endif
// *** COMM ###
#include "comm_app.h"
// *** PARTICLE ***
#include "particle.h"
// *** PROG ***
#include "../prog/headers/prog.h"
// *** DMP ***
#include "../dmp/headers/dmp.h"
// *** CHECK ***
#include "../check/headers/check.h"
// *** TEST ***
typedef bool (*test_fn)(int argc, char **argv);
typedef struct test_s {
const char *test; /* test name */
const char *syntax; /* test syntax */
test_fn fn; /* test functor */
particle_type_t type; /* particle type to use */
} test_t;
extern const test_t g_all_tests[];
void print_tests(int argc __unused, char **argv __unused);
bool test_list(int argc __unused, char **argv __unused);
bool test_dist(int argc __unused, char **argv __unused);
bool test_dev(int argc __unused, char **argv __unused);
bool test_dist_ex(int argc __unused, char **argv __unused);
bool test_rand(int argc __unused, char **argv __unused);
#endif
<|repo_name|>LiYongheng/ISM<|file_sep|>/Objects/.lib/AT91RM9200/lib/isr/rda1613_isr.c
/* Copyright (C) 2013 by The Board of Trustees of Stanford University
Licensed under the Apache License, Version 2.0 (the "License");
you may not use this file except in compliance with the License.
You may obtain a copy of the License at
http://www.apache.org/licenses/LICENSE-2.0
Unless required by applicable law or agreed to in writing, software
distributed under the License is distributed on an "AS IS" BASIS,
WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
See the License for the specific language governing permissions and
limitations under the License.
*/
/*
* This file contains ISR routines for RDA1613
*/
#include "rda1613.h"
#include "generic/rda1613_intr.h"
void rda1613_intr_fixed_input_line_adc_isr_reg(unsigned int irq_priority)
{
CCB_CTRL_SET_ADDR(WB_VIDEO_IRQC_REG_ADDR);
HAL_DEVICE_INTR_READ_WRITE_REGAT(WB_VIDEO_IRQC_REG_ADDR,
rda1613_ir_reg_start_bit_mask_vramtack_event(),
rda1613_ir_reg_start_bit_mask_vramtack_event() | rda1613_ir_reg_vramtack_event(),
rda1613_ir_reg_vramtack_event_bit_mask());
HAL_DEVICE_INTR_SET_ADDR(IRQ_LINE_ADC_ADDR);
HAL_DEVICE_INTR_SET_TRI_STATE_CTL(IRQ_LINE_ADC_ADDR);
if (irq_priority >= 13)
HAL_DEVICE_INTR_PRIORITY_SET_MASK(IRQ_LINE_ADC_ADDR,
HAL_DEVICE_INTR_DEFAULT_PRIORITY_INFINITY - irq_priority);
else
HAL_DEVICE_INTR_PRIORITY_SET_MASK(IRQ_LINE_ADC_ADDR,
HAL_DEVICE_INTR_DEFAULT_PRIORITY_INFINITY);
}
void rda1613_intr_fixed_input_line_aud_isr_reg(unsigned int irq_priority)
{
CCB_CTRL_SET_ADDR(WB_AUDIO_IRQC_REG_ADDR);
HAL_DEVICE_INTR_READ_WRITE_REGAT(WB_AUDIO_IRQC_REG_ADDR,
rda1613_ir_reg_start_bit_mask_play_fail(),
rda1613_ir_reg_start_bit_mask_play_fail() | rda1613_ir_reg_play_fail(),
rda1613_ir_reg_play_fail_bit_mask());
HAL_DEVICE_INTR_READ_WRITE_REGAT(WB_AUDIO_IRQC_REG_ADDR,
rda1613_ir_reg_start_bit_mask_wtd_mfo(),
rda1613_ir_reg_start_bit_mask_wtd_mfo() | rda1613_ir_reg_wtd_mfo(),
rda1613_ir_reg_wtd_mfo_bit_mask());
HAL_DEVICE_INTR_READ_WRITE_REGAT(WB_AUDIO_IRQC_REG_ADDR,
rda1613_ir_reg_start_bit_mask_wto_mfo(),
rda1613_ir_reg_start_bit_mask_wto_mfo() | rda1613_ir_reg_wto_mfo(),
rda1613_ir_reg_wto_mfo_bit_mask());
HAL_DEVICE_INTR_READ_WRITE_REGAT(WB_AUDIO_IRQC_REG_ADDR,
rda1613_ir_reg_start_bit_mask_rsto_aud(),
rda1613_ir_reg_start_bit_mask_rsto_aud() | rda1613_ir_reg_rsto_aud(),
rda1613_ir_reg_rsto_aud_bit_mask());
HAL_DEVICE_INTR_READ_WRITE_REGAT(WB_AUDIO_IRQC_REG_ADDR,
rda1613_ir_reg_start_bit_mask_abdoa_alert(),
rda1613_ir_reg_start_bit_mask_abdoa_alert() | rda1613_ir_reg_abdoa_alert(),
rda1613_ir_reg_abdoa_alert_bit_mask());
HAL_DEVICE_INTR_READ_WRITE_REGAT(WB_AUDIO_IRQC_REG_ADDR,
rda1613_ir_reg_start_bit_mask_aud2_ai2(),
rda1613_ir_reg_start_bit_mask_aud2_ai2() | rda1613_ir_reg_aud2_ai2(),
rda1613_ir_reg_aud2_ai2_bit_mask());
HAL_DEVICE_INTR_READ_WRITE_REGAT(WB_AUDIO_IRQC_REG_ADDR,
rda1613_ir_reg_start_bit_mask_aud_ai2(),
rda1613_ir_reg_start_bit_mask_aud_ai2() | rda1613_ir_reg_aud_ai2(),
rda1613_ir_reg_aud_ai2_bit_mask());
HAL_DEVICE_INTR_READ_WRITE_REGAT(WB_AUDIO_IRQC_REG_ADDR,
rda1613_ir_reg_start_bit_mask_audo_afrtc(),
rda1613_ir_reg_start_bit_mask_audo_afrtc() | rda1613_ir_reg_audo_afrtc(),
rda1613_ir_reg_audo_afrtc_bit_mask());
HAL_DEVICE_INTR_READ_WRITE_REGAT(WB_AUDIO_IRQC_REG_ADDR,
rda1613_ir_reg_start_bit_mask_audo_alert(),
rda1613_ir_reg_start_bit_mask_audo_alert() | rda1613_ir_reg_audo_alert(),
rda1613_ir_reg_audo_alert_bit_mask());
HAL_DEVICE_INTR_SET_ADDR(IRQ_LINE_AUD_ADDR);
HAL_DEVICE_INTR_SET_TRI_STATE_CTL(IRQ_LINE_AUD_ADDR);
if (irq_priority >= 15)
HAL_DEVICE_INTR_PRIORITY_SET_MASK(IRQ_LINE_AUD_ADDR,
HAL_DEVICE_INTR_DEFAULT_PRIORITY_INFINITY - irq_priority);
else
HAL_DEVICE_INTR_PRIORITY_SET_MASK(IRQ_LINE_AUD_ADDR,
HAL_DEVICE_INTR_DEFAULT_PRIORITY_INFINITY);
}
void rda1613_intr_fixed_input_line_otp_isr_reg(unsigned int irq_priority)
{
CCB_CTRL_SET_ADDR(WB_OTS_AND_OTP_IRTC_REG_ADDR);
HAL_DEVICE_INTR_READ_WRITE_REGAT(WB_OTS_AND_OTP_IRTC_REG_ADDR,
rda1613_ir_reg_otp_start_bit_mask_otp_pll_lock(),
rda1613_ir_reg_otp_start_bit_mask_otp_pll_lock() | rda1613_ir_reg_otp_pll_lock(),
rda1613_ir_reg_otp_pll_lock_bit_mask());
HAL_DEVICE_INTR_READ_WRITE_REGAT(WB_OTS_AND_OTP_IRTC_REG_ADDR,
rda1613_ir_reg_otp_start_bit_mask_otp_fifo_req(),
rda1613_ir_reg_otp_start_bit_mask_otp_fifo_req() | rda1613_ir_reg_otp_fifo_req(),
rda1613_ir_reg_otp_fifo_req_bit_mask());
HAL_DEVICE_INTR_READ_WRITE_REGAT(WB_OTS_AND_OTP_IRTC_REG_ADDR,
rda1613_ir_reg_otp_start_bit_mask_clk_ref_synced(),
rda1613_ir_reg_otp_start_bit_mask_clk_ref_synced()
| rda1613_ir_reg_clk_ref_synced(),
//TODO: Check the Bit Mask
int dummy_var=0,dummy_var1=0;
dummy_var=rda1613_ir_reg_clk_ref_synced();
dummy_var1=rda1613_ir_reg_clk_ref_synced_bit_mask();
dummy_var=0;dummay_var1=0;
rda1613_ir_reg_clk_ref_synced_bit_mask());
HAL_DEVICE_INTR_READ_WRITE_REGAT(WB_OTS_AND_OTP_IRTC_REG_ADDR,
rda1613_ir_reg_otp_start_bit_mask_success_bi_bii_rwrap(),
rda1613_ir_reg_otp_start_bit_mask_success_bi_bii_rwrap() |
rda1613_ir_reg_success_bi_bii_rwrap(),
rda1613_ir_reg_success_bi_bii_rwrap_bit_mask());
HAL_DEVICE_INTR_SET_ADDR(IRQ_LINE_OTP_ADDR);
HAL_DEVICE_INTR_SET_TRI_STATE_CTL(IRQ_LINE_OTP_ADDR);
if (irq_priority >= 15)
HAL_DEVICE_INTR_PRIORITY_SET_MASK(IRQ_LINE_OTP_ADDR,
HAL_DEVICE_INTR_DEFAULT_PRIORITY_INFINITY - irq_priority);
else
HAL_DEVICE_INTR_PRIORITY_SET_MASK(IRQ_LINE_OTP_ADDR,
HAL_DEVICE_INTR_DEFAULT_PRIORITY_INFINITY);
}
void rda
