Abstract: The present disclosure provides a particle analyzer and a particle test control method and device thereof. A method comprises, acquiring a blood sample in a test location; preparing a diluted sample by the acquired sample; after acquiring a diluted sample, monitoring whether a pore blocking event occurs during a counting process; when the pore blocking event occurs, suspending the test of the sample, and performing an unblocking operation; and after the unblocking operation is completed, re-counting the same diluted sample without re-acquiring and re-diluting the blood sample by the impedance method after the unblocking operation.

Abstract: The disclosure discloses a sample analyzer and a sample analysis system. The sample analyzer includes a first specimen supply device, a chromatographic separation device and a first controller. The chromatographic separation device is controlled by the first controller to elute and chromatograph a first specimen in a first operation mode and to elute and chromatograph a second specimen in a second operation mode. The first controller is configured to: analyze feedback information from the chromatographic separation device in the first operation mode to obtain a parameter of glycosylated hemoglobin in the first specimen and a conclusion as to whether an interfering substance exists in the first specimen, and to analyze feedback information from the chromatographic separation device in the second operation mode to obtain a parameter of glycosylated hemoglobin in the second specimen and a parameter of an interfering substance in the second specimen.

Abstract: The present disclosure provides a particle analyzer and a particle test control method and device thereof. A method comprises, acquiring a blood sample in a test location; preparing a diluted sample by the acquired sample; after acquiring a diluted sample, monitoring whether a pore blocking event occurs during a counting process; when the pore blocking event occurs, suspending the test of the sample, and performing an unblocking operation; and after the unblocking operation is completed, re-counting the same diluted sample without re-acquiring and re-diluting the blood sample by the impedance method after the unblocking operation.

Abstract: A sampling assembly, including a sampling needle, a first pipeline, a second pipeline, a driving member, a first switching member, and a second switching member, is disclosed. The first pipeline is connected between the sampling needle and the first switching member. The second pipeline is connected between the first switching member and the driving member. The first switching member is used for connecting or disconnecting the first pipeline and the second pipeline. The second pipeline is connected, by means of the second switching member, to a negative pressure source. The sampling time of the sampling assembly of the present disclosure is relatively short. The present disclosure further discloses a sample analyzer and a sampling method.

Abstract: A sample loading mechanism and method applicable to a smear apparatus, and a smear apparatus are provided. The sample loading mechanism includes: a blood dripping needle, a transfer device and a control device. The blood dripping needle is connected with the transfer device which is configured to drive the blood dripping needle to move relative to a slide. When the blood dripping needle is in contact with the slide, the control device is configured to control the transfer device to stop the blood dripping needle from moving towards the slide, and to control the blood dripping needle to drip a blood sample onto the slide.

Abstract: A sample testing device, a sample testing method, and a sample analyze are provided. The sample testing device includes a pipeline assembly, a testing assembly, and a reaction assembly. The pipeline assembly includes a first pipeline and a second pipeline. The testing assembly includes a sample needle which includes a first connection point. The reaction assembly includes a first reaction cell group connected to a second connection point of the first pipeline and a second reaction cell group which communicates with the second pipeline, and the reaction assembly is configured to treat a biological sample to prepare a test liquid. A test liquid in the first reaction cell group flows to the first connection point via the second connection point of the first pipeline, and a test liquid in the second reaction cell group flows to the first connection point via the second pipeline.

Abstract: A smear preparation machine includes: a slide loading mechanism (2) configured to load a slide; a sample applying mechanism (3) configured to apply a blood sample to the slide; a smearing mechanism (4) configured to smear the blood sample on the slide to prepare a smear; a dripping and staining mechanism (5) configured to drip a staining reagent and a buffer solution to the smear; an air blowing mechanism configured to blow air to the staining reagent and the buffer solution on the smear for blowing mixing, such that the staining reagent and the buffer solution are mixed and cover the smear, thereby staining the smear once.

Abstract: A liquid phase analysis device includes a first fluid supply system for driving a first fluid or a sample to be detected, a second fluid supply system for driving a second fluid, an injection valve connected to the second fluid supply system and the first fluid supply system, a chromatographic column connected to the injection valve, and a detector connected to the chromatographic column, wherein the chromatographic column is used for isolating components in the sample to be detected; the detector is used for detecting the components, isolated by the chromatographic column, in the sample to be detected; the injection valve is used for switching a flow path so as to communicate flow paths of the first fluid supply system and second fluid supply system with a flow path of the chromatographic column. The liquid phase analysis device simplifies the complexity of a system, thereby reducing the costs of implementation.

Abstract: A liftable and adjustable shower device, that includes: an outer tube, an inner tube, an upper fixing seat, and a liftable tube. The outer tube is disposed in the shower device; and the inner tube is disposed in the outer tube. The upper fixing seat is disposed around an upper end of the outer tube. The liftable tube is sleeved around the inner tube, the liftable tube is insertable from an upper end of the upper fixing seat, to sleeve around outside the outer tube.

Abstract: In one embodiment, a device in a network generates a machine learning-based traffic model using data indicative of a particular node in the network attempting to retrieve content from a particular resource in the network. The device predicts, using the traffic model, a time at which the particular node is expected to attempt retrieving future content from the particular resource. The device causes the future content from the particular resource to be prefetched in the network prior to the predicted time. The device makes a security assessment of the prefetched content. The device causes performance of a mitigation action in the network based on the security assessment of the prefetched content and in response to the particular node attempting to retrieve the future content from the particular resource.

Abstract: The present disclosure provides a particle analyzer and a particle test control method and device thereof. A method comprises, acquiring a blood sample in a test location; preparing a diluted sample by the acquired sample; after acquiring a diluted sample, monitoring whether a pore blocking event occurs during a counting process; when the pore blocking event occurs, suspending the test of the sample, and performing an unblocking operation; and after the unblocking operation is completed, re-counting the same diluted sample without re-acquiring and re-diluting the blood sample by the impedance method after the unblocking operation.

Abstract: A sample testing device, a sample testing method, and a sample analyze are provided. The sample testing device includes a pipeline assembly, a testing assembly, and a reaction assembly. The pipeline assembly includes a first pipeline and a second pipeline. The testing assembly includes a sample needle which includes a first connection point. The reaction assembly includes a first reaction cell group connected to a second connection point of the first pipeline and a second reaction cell group which communicates with the second pipeline, and the reaction assembly is configured to treat a biological sample to prepare a test liquid. A test liquid in the first reaction cell group flows to the first connection point via the second connection point of the first pipeline, and a test liquid in the second reaction cell group flows to the first connection point via the second pipeline.

Abstract: A liquid phase analysis device includes a first fluid supply system for driving a first fluid or a sample to be detected, a second fluid supply system for driving a second fluid, an injection valve connected to the second fluid supply system and the first fluid supply system, a chromatographic column connected to the injection valve, and a detector connected to the chromatographic column, wherein the chromatographic column is used for isolating components in the sample to be detected; the detector is used for detecting the components, isolated by the chromatographic column, in the sample to be detected; the injection valve is used for switching a flow path so as to communicate flow paths of the first fluid supply system and second fluid supply system with a flow path of the chromatographic column. The liquid phase analysis device simplifies the complexity of a system, thereby reducing the costs of implementation.

Abstract: A sampling assembly, including a sampling needle, a first pipeline, a second pipeline, a driving member, a first switching member, and a second switching member, is disclosed. The first pipeline is connected between the sampling needle and the first switching member. The second pipeline is connected between the first switching member and the driving member. The first switching member is used for connecting or disconnecting the first pipeline and the second pipeline. The second pipeline is connected, by means of the second switching member, to a negative pressure source. The sampling time of the sampling assembly of the present disclosure is relatively short. The present disclosure further discloses a sample analyzer and a sampling method.

Abstract: The present disclosure provides a particle analyzer and a particle test control method and device thereof. A method comprises, after acquiring a diluted sample, preserving a part of the diluted sample, and monitoring whether a pore blocking event occurs during a counting process; when the pore blocking event occurs, suspending the test of the sample, and performing an unblocking operation; and after the unblocking operation is completed, controlling a liquid addition system to again acquire the preserved part of the sample from a reaction cell or a tube of the liquid addition system and inject it into a counting cell, and then re-counting the sample in the counting cell by an impedance method.

Abstract: A liftable and adjustable shower device, that includes: an outer tube, an inner tube, an upper fixing seat, and a liftable tube. The outer tube is disposed in the shower device; and the inner tube is disposed in the outer tube. The upper fixing seat is disposed around an upper end of the outer tube. The liftable tube is sleeved around the inner tube, the liftable tube is insertable from an upper end of the upper fixing seat, to sleeve around outside the outer tube.

Abstract: In one embodiment, a method includes establishing at a security device, a secure session for transmitting data between a client device and an end host, receiving decrypted data at the security device from the client device, inspecting the decrypted data at the security device, encrypting the decrypted data at the security device, and transmitting encrypted data to the end host. Decryption at the client device is offloaded from the security device to distribute decryption and encryption processes between the client device and the security device. An apparatus and logic are also disclosed herein.

Abstract: In one embodiment, a device in a network generates a machine learning-based traffic model using data indicative of a particular node in the network attempting to retrieve content from a particular resource in the network. The device predicts, using the traffic model, a time at which the particular node is expected to attempt retrieving future content from the particular resource. The device causes the future content from the particular resource to be prefetched in the network prior to the predicted time. The device makes a security assessment of the prefetched content. The device causes performance of a mitigation action in the network based on the security assessment of the prefetched content and in response to the particular node attempting to retrieve the future content from the particular resource.

Abstract: In one embodiment, a method includes receiving capability information from an end host at a centralized security matrix in communication with a firewall and a plurality of end hosts, verifying at the centralized security matrix, a trust level of the end host, assigning at the centralized security matrix, a firewall function to the end host based on the trust level and capability information, and notifying the firewall of the firewall function assigned to the end host. Firewall functions are offloaded from the firewall to the end hosts by the centralized security matrix. An apparatus and logic are also disclosed herein.

Abstract: In one embodiment, a method includes establishing at a security device, a secure session for transmitting data between a client device and an end host, receiving decrypted data at the security device from the client device, inspecting the decrypted data at the security device, encrypting the decrypted data at the security device, and transmitting encrypted data to the end host. Decryption at the client device is offloaded from the security device to distribute decryption and encryption processes between the client device and the security device. An apparatus and logic are also disclosed herein.