Abstract: The present disclosure provides an ion mobility spectrometer, which comprises: a power supply circuit, configured to provide a power supply voltage; a corona discharge configured to generate ions to be subjected to measurement, through corona discharge; an ion migration circuit configured to control migration of the ions; a migration zone structure configured to realize, under control of the ion migration circuit, mobility spectrum measurement of the ions which pass through the migration zone structure; a redundant charge extraction electrode arranged between the corona discharge structure and the migration zone structure, so that the ions which are generated by the corona discharge structure can pass therethrough to reach the migration zone structure; and a redundant charge extraction circuit, wherein the redundant charge extraction electrode is connected to the ground through the redundant charge extraction circuit.

Abstract: The present disclosure provides a gas chromatography-ion mobility spectrometry apparatus, including a housing, an injection port mounted to and connected with the housing and configured for input of a gas containing a sample therein, a multicapillary column configured for separation of a gas substance and an ion mobility tub configured for analysis of the gas substance. The gas chromatography-ion mobility spectrometry apparatus further includes: a gas path part connected with the ion mobility tube and configured for providing the gas to the ion mobility tube and receiving a gas discharged from the ion mobility tube; and a buffer base part detachably mounted to the housing and configured to isolation vibration outside the buffer base part, the ion mobility tube being disposed on the buffer base part, wherein the gas path part is mounted in an interior space of the buffer base part.

Abstract: A sample injection device for sample collection and thermal desorption includes: a sample collection structure; a piston type adsorber having an adsorption cavity communicating with the sample collection structure; a piston cylinder defining a piston chamber accommodating the adsorber and communicating with the adsorption cavity; a thermal desorption chamber communicating with the adsorption cavity and the piston chamber; and a pump configured to pump a sample diffused in an ambient gas into the adsorption cavity through the sample collection structure and the piston chamber; the adsorber is movable between a sample collecting position where the adsorption cavity is outside the thermal desorption chamber and adsorbs the sample collected by the sample collection structure and a sample desorbing position where the adsorption cavity is inside the thermal desorption chamber so that the adsorbed sample is thermally desorbed in the thermal desorption chamber.

Abstract: Apparatus and method for a single chip quantum control stack. For example, one embodiment of a processor comprises: a decoder comprising quantum instruction decode circuitry to decode quantum instructions to generate decoded quantum instructions; execution circuitry including a plurality of functional units to execute the decoded quantum instructions; a register file shared by the plurality of functional units, the register file to store operands used for execution of the decoded quantum instructions; and a classical-quantum (C-Q) interface to couple the execution circuitry to a quantum processor, the C-Q interface comprising digital-to-analog circuitry to generate analog signals to manipulate a current state of one or more quantum bits (qubits) of the quantum processor in response to execution of the decoded quantum instructions, wherein the decoder, execution circuitry, register file and C-Q interface are integrated on a single integrated circuit (IC) chip.

Abstract: Apparatus and method for arbitrary qubit rotation. For example, one embodiment of a processor comprises: a decoder to decode a quantum rotation instruction specifying an arbitrary rotation value for performing a rotation of a quantum bit (qubit); a storage to store data for a plurality of waveform shapes/pulses; execution circuitry to perform the rotation of the qubit, the execution circuitry to combine a subset of the plurality of waveform shapes/pulses to approximate the arbitrary rotation value; and a classical-quantum (C-Q) interface coupled to the execution circuitry and comprising digital-to-analog circuitry to generate analog signals to rotate the qubit based on the approximation of the rotation value.

Abstract: Apparatus and method for injected spin echo sequences in a quantum processor. For example, one embodiment of a processor comprises a decoder to decode quantum instructions to generate quantum microoperations (uops) and non-quantum instructions to generate non-quantum uops; execution circuitry to execute the quantum uops and non-quantum uops; a corrective sequence data structure to identify and/or store corrective sets of uops for one or more of the quantum instructions; wherein the decoder is to query the corrective sequence data structure upon receiving a first quantum instruction to determine if one or more corrective uops exist and if the one or more corrective uops exist, then to submit the one or more corrective uops for execution by the execution circuitry.

Abstract: An apparatus and method for scalable qubit addressing. For example, one embodiment of a processor comprises: a decoder comprising quantum instruction decode circuitry to decode quantum instructions to generate quantum microoperations (uops) and non-quantum decode circuitry to decode non-quantum instructions to generate non-quantum uops; execution circuitry comprising: an address generation unit (AGU) to generate a system memory address responsive to execution of one or more of the non-quantum uops; and quantum index generation circuitry to generate quantum index values responsive to execution of one or more of the quantum uops, each quantum index value uniquely identifying a quantum bit (qubit) in a quantum processor; wherein to generate a first quantum index value for a first quantum uop, the quantum index generation circuitry is to read the first quantum index value from a first architectural register identified by the first quantum uop.

Abstract: A hybrid classical-quantum processor is described.

Abstract: The invention discloses a switch control device, configured to control a plurality of objects. The switch control device comprises a touch panel and a controller. The touch panel generates a touch signal in response to a user's touch gesture. The controller determines a number of touch points according to the touch signal generated by the touch panel, and controls a corresponding number of the objects. The invention further discloses a switch control method. The switch control device and method of the present disclosure can quickly open a corresponding number of objects, without having to operate specific keys, which is convenient and quick.

Abstract: A sampling device and a gas curtain guide are disclosed. In one aspect, the sampling device includes a chamber body. The chamber body includes a sample inlet, located at a first end of the chamber body, configured for suction of a sample. The chamber body further includes a sample outlet, located adjacent to a second end opposite to the first end of the chamber body, configured to discharge the sample. The chamber body further includes a gas inflation inlet, in a wall of the chamber body, configured to introduce a swirl gas flow into the chamber body. The chamber body further includes a gas exhaust opening configured to discharge gas so as to, together with the gas inflation inlet, generate a tornado type gas flow in the chamber body, which moves spirally from the first end to the second end of the chamber body.

Abstract: A method for selecting an antenna is provided. S1, whether a signal intensity of a default working antenna among multiple antennae of an electronic device is lower than a preset value is detected, when not, repeat S1, otherwise, proceed to S2. S2, whether a current operating environment of the electronic device is matched with a preset operating environment is detected, when yes, proceed to S3, otherwise, proceed to S5. S3, a first antenna of the multiple antennas is enabled as a working antenna, and the first antenna is located on the electronic device at a position that is least affected by the current operating environment. S4, whether a signal intensity of the first antenna is lower than the preset value is detected, when not, repeat S4, otherwise, proceed to S5. S5, an antenna with the highest signal intensity among the multiple antennas is enabled as the working antenna.

Abstract: Disclosed are a flexible screen extension structure, a flexible screen assembly, and a terminal. The flexible screen extension structure may include a first panel, a first sliding element, a second panel, a second sliding element, and a first elastic element. The first panel may include a first guiding mechanism. The first sliding element is slidably connected to the first guiding mechanism along a first direction. The second panel may include a second guiding mechanism. The second sliding element is slidably connected to the second guiding mechanism along a second direction. The second direction is parallel to the first direction. The first elastic element is arranged between the first sliding element and the second sliding element.

Abstract: The present invention provides an OLED touch control display device, a method for manufacturing an OLED touch control display device, and a method for manufacturing a touch control screen. The OLED touch control display device comprises a substrate having a first surface and a second surface arranged opposite the first surface, a touch control screen arranged on the first surface, defining a display area arranged on the second surface, a touch control interface circuit connected to the touch control screen, defining an interface binding area connected to the display area, and defining via holes penetrating the first surface and the second surface. The touch control interface circuit and the interface binding area are arranged on the first surface or the second surface. The touch control screen includes touch control pattern areas arranged in a matrix and connected together via the via holes.

Abstract: A method for selecting an antenna is provided. S1, whether a signal intensity of a default working antenna among multiple antennae of an electronic device is lower than a preset value is detected, when not, repeat S1, otherwise, proceed to S2. S2, whether a current operating environment of the electronic device is matched with a preset operating environment is detected, when yes, proceed to S3, otherwise, proceed to S5. S3, a first antenna of the multiple antennas is enabled as a working antenna, and the first antenna is located on the electronic device at a position that is least affected by the current operating environment. S4, whether a signal intensity of the first antenna is lower than the preset value is detected, when not, repeat S4, otherwise, proceed to S5. S5, an antenna with the highest signal intensity among the multiple antennas is enabled as the working antenna.

Abstract: A container includes a light source and an accommodating cavity. The container further includes a control component and a touch control panel arranged at a location of the accommodating cavity which is easy gripped. The control component is electrically coupled to the light source and the touch control panel. The control component controls the light source to emit light according to an external touch signal sensed by the touch control panel. The container employs the touch control panel as a sensing switch. Upon a user touching a side face of the container with a hand, the control component turns on the light source to emit light, and when the user's fingers leave the container, the control component controls the light source to be turned off.

Abstract: A sample introduction device comprises a sampling unit, a gas suction pump, adsorption units, a piston cylinder and a desorption cylinder that comprises a desorption chamber, a carrier-gas inlet, a split/purge vent and an analyzer nozzle communicating with the desorption chamber. A heating film and a temperature sensor are provided on outer wall of the desorption cylinder. The piston cylinder above the desorption cylinder comprises two piston chambers, each of which is provided with the adsorption unit and in communication with the desorption chamber. The piston cylinder comprises a sample-gas inlet connected to the sampling unit and a gas-suction-pump orifice connected to the gas suction pump, each of which can communicate with both piston chambers. Each adsorption unit comprises an adsorption cylinder-like screen for holding adsorbents and a piston rod slidably mounted in the piston chamber.

Abstract: The present disclosure provides an ion mobility spectrometer, which comprises: a power supply circuit, configured to provide a power supply voltage; a corona discharge configured to generate ions to be subjected to measurement, through corona discharge; an ion migration circuit configured to control migration of the ions; a migration zone structure configured to realize, under control of the ion migration circuit, mobility spectrum measurement of the ions which pass through the migration zone structure; a redundant charge extraction electrode arranged between the corona discharge structure and the migration zone structure, so that the ions which are generated by the corona discharge structure can pass therethrough to reach the migration zone structure; and a redundant charge extraction circuit, wherein the redundant charge extraction electrode is connected to the ground through the redundant charge extraction circuit.

Abstract: The present application relates to a dual energy detector and a radiation inspection system. The dual energy detector comprises: a detector module mount and a plurality of detector modules. The detector module includes a higher energy detector array and a lower energy detector array, which are juxtaposedly provided on said detector module mount to be independently irradiated. The present application may simplify the arrangement of the photodiodes and printed circuit boards to which the higher and lower energy detector arrays are connected, such that necessary thickness dimension of the detector module mount is reduced, thereby facilitating the installation and use of the dual energy detector of the present application. On the other hand, the radiation beam in the present application may be independently irradiated to the higher and lower energy detector arrays juxtaposed to each other, which reduces to certain extent the mutual restriction during selection of the higher and lower energy detector arrays.

Abstract: This disclosure provides a radiation detection apparatus and a method, a data processing method and a processor, which relates to the field of radiation detection technology. Wherein, the radiation detection apparatus of this disclosure comprises: a radiation detector which generates an electrical signal by interacting with X-rays; an Analog-to-Digital Converter (ADC) which is coupled to the radiation detector and transmits the electrical signal to a waveform data; and a data processor which receives the waveform data from the ADC, determines the number of single photon signals according to the waveform data, and determines whether an integral signal and/or a count signal of the waveform data will be used for imaging according to the number of the single photon signals.

Abstract: The present disclosure provides a gas chromatography-ion mobility spectrometry apparatus, including a housing, an injection port mounted to and connected with the housing and configured for input of a gas containing a sample therein, a multicapillary column configured for separation of a gas substance and an ion mobility tub configured for analysis of the gas substance. The gas chromatography-ion mobility spectrometry apparatus further includes: a gas path part connected with the ion mobility tube and configured for providing the gas to the ion mobility tube and receiving a gas discharged from the ion mobility tube; and a buffer base part detachably mounted to the housing and configured to isolation vibration outside the buffer base part, the ion mobility tube being disposed on the buffer base part, wherein the gas path part is mounted in an interior space of the buffer base part.