mhurhangee/patent-ind-claim-en huggingface dataset:
Disconnecting device for a hydraulic brake system , in particular for a vehicle , bicycle, electric bicycle, e-bike or pedelec which can be driven by way of muscle power and/or by way of motor power, in the case of which disconnecting device : - in a normal brake operating state, a section (32-1), which lies upstream and in the reservoir side, of a brake line of the brake system and a section (32-2), which lies downstream and on the brake side, of the brake line of the brake system are connected hydraulically, - in a disconnected operating state, that section (32-1) of the brake line which lies upstream and on the reservoir side and that section (32-2) of the brake line which lies downstream and on the brake side are disconnected hydraulically from one another, - a hydraulic valve with a housing and a slide element is configured for the controlled hydraulic connection and disconnection, - the slide element can be displaced in the housing between a first position which corresponds to the normal brake operating state and a second position which corresponds to the disconnected operating state, characterized in that - the hydraulic valve is set up to displace the slide element into the second position which corresponds to the disconnected operating state in a manner which is controlled via a pressure which prevails in an associated pressure accumulator . - in a normal brake operating state, a section (32-1), which lies upstream and in the reservoir side, of a brake line of the brake system and a section (32-2), which lies downstream and on the brake side, of the brake line of the brake system are connected hydraulically, - in a disconnected operating state, that section (32-1) of the brake line which lies upstream and on the reservoir side and that section (32-2) of the brake line which lies downstream and on the brake side are disconnected hydraulically from one another, - a hydraulic valve with a housing and a slide element is configured for the controlled hydraulic connection and disconnection, - the slide element can be displaced in the housing between a first position which corresponds to the normal brake operating state and a second position which corresponds to the disconnected operating state, - the hydraulic valve is set up to displace the slide element into the second position which corresponds to the disconnected operating state in a manner which is controlled via a pressure which prevails in an associated pressure accumulator .
Insulating sleeve made of an electrically insulating material for electrically insulated attachment of an add-on part having a through-hole to a rod-shaped anchor which passes through the through-hole , wherein the insulating sleeve comprises first and second sleeve parts which are telescopable one into the other, so that the insulating sleeve has an unbroken lateral surface, wherein each of the sleeve parts has a tubular portion , each of the sleeve parts having at least one tongue , characterised in that in each case the tongue of one of the sleeve parts slides over or in the tubular portion of the other sleeve part .
A pressure measuring assembly with a pressure measuring cell disposed in a process connection , wherein the process connection for accommodating the pressure measuring cell and coupling the same to a process environment (I) is provided with a fastening portion and an accommodating portion with an accommodating space for at least one base body of the pressure measuring cell , wherein the process connection , at least in a portion adjacent to the process environment (I), is made from ceramic and comprises at least one ceramic diaphragm sealing the accommodating space from the process environment (I), characterized in that the pressure measuring cell has its own measuring diaphragm, which is connected to the ceramic diaphragm .
An implantable medical device comprising a metallic layer on which is located a surface dielectric insulating layer comprising titanium oxide, the dielectric insulating layer having ions thereon which are capable of forming an electrostatic charge capable of locally creating an electric field associated with at least part of the surface of said implantable medical device upon application of an electrolyte solution to said surface; and wherein the dielectric insulating layer has a thickness in the range 1nm - 100μm and said ions include Mg 2+ cations applied to said dielectric layer.
A spectacle lens, which comprises: a lens substrate comprising a blue light absorbable compound, and a multilayer film comprising a chromium layer with a film thickness of 1.0 to 10.0 nm, characterized in that the blue light cut rate is 21.0% or more, a dominant wavelength measured at an object side surface of the spectacle lens falls within a range of 500.0 to 550.0 nm, a dominant wavelength measured at an eyeball side surface of the spectacle lens falls within a range of 500.0 to 550.0 nm, wherein the luminous reflectance measured at the object side surface of the spectacle lens is 1.80% or less. a lens substrate comprising a blue light absorbable compound, and a multilayer film comprising a chromium layer with a film thickness of 1.0 to 10.0 nm, characterized in that the blue light cut rate is 21.0% or more, a dominant wavelength measured at an object side surface of the spectacle lens falls within a range of 500.0 to 550.0 nm, a dominant wavelength measured at an eyeball side surface of the spectacle lens falls within a range of 500.0 to 550.0 nm, wherein the luminous reflectance measured at the object side surface of the spectacle lens is 1.80% or less.
- An antenna system including an antenna, the antenna comprising: a planar ground plane , a planar radiating element , having a central segment and first and second lateral segments extending from the central segment , wherein the radiating element is arranged above the ground plane and substantially parallel to the ground plane , and wherein the radiating element has a U-shaped configuration, wherein the ground plane is connected to the central segment of the radiating element by a connection of the ground plane , and wherein the ground plane has at least one slot , the slot having two edges , and the antenna system further comprises a feed line including a feed terminal and a ground terminal, that are connected respectively with said edges . a planar ground plane , a planar radiating element , having a central segment and first and second lateral segments extending from the central segment , wherein the radiating element is arranged above the ground plane and substantially parallel to the ground plane , and wherein the radiating element has a U-shaped configuration, wherein the ground plane is connected to the central segment of the radiating element by a connection of the ground plane , and wherein the ground plane has at least one slot , the slot having two edges , and the antenna system further comprises a feed line including a feed terminal and a ground terminal, that are connected respectively with said edges .
A sensor management unit (1; 10) for transmitting first sensing data obtained by a first sensor monitoring a target to an external device external to the sensor management unit (1; 10), the sensor management unit (1; 10) comprising: a processor ; and a memory storing a program executable by the processor , wherein the memory is configured to store obtaining condition information that defines obtaining conditions for obtaining a plurality of candidate items of metadata to be associated with the first sensing data, and the program is configured to, when executed by the processor, cause the processor to implement: obtaining the first sensing data, obtaining at least one of the candidate items of metadata in accordance with the obtaining conditions, and transmitting, to the external device , the obtained first sensing data and the obtained metadata in a manner associated with each other. a processor ; and a memory storing a program executable by the processor , wherein the memory is configured to store obtaining condition information that defines obtaining conditions for obtaining a plurality of candidate items of metadata to be associated with the first sensing data, and the program is configured to, when executed by the processor, cause the processor to implement: obtaining the first sensing data, obtaining at least one of the candidate items of metadata in accordance with the obtaining conditions, and transmitting, to the external device , the obtained first sensing data and the obtained metadata in a manner associated with each other. obtaining the first sensing data, obtaining at least one of the candidate items of metadata in accordance with the obtaining conditions, and transmitting, to the external device , the obtained first sensing data and the obtained metadata in a manner associated with each other.
A marker installation method for laying markers detected by a vehicle, the method comprising: setting a surveying device which measures a distance to a target at a reference position; when an operation for laying a respective marker is performed, measuring, by using the surveying device , a distance to an installation device which performs the operation for laying; identifying, using the distance measured, a position relation of a laying position where the respective marker is laid with respect to the reference position; identifying a position, which has the position relation identified with respect to the reference position, as the laying position of the respective marker ; storing the laying position of the respective marker in a database; and accumulating stored laying positions of the markers as laying information of the markers in the database. setting a surveying device which measures a distance to a target at a reference position; when an operation for laying a respective marker is performed, measuring, by using the surveying device , a distance to an installation device which performs the operation for laying; identifying, using the distance measured, a position relation of a laying position where the respective marker is laid with respect to the reference position; identifying a position, which has the position relation identified with respect to the reference position, as the laying position of the respective marker ; storing the laying position of the respective marker in a database; and accumulating stored laying positions of the markers as laying information of the markers in the database.
A magnetoresistive element comprising a semiconductor channel layer, a first ferromagnetic layer disposed on the semiconductor channel layer, a second ferromagnetic layer disposed away from the first ferromagnetic layer on the semiconductor channel layer, a nonmagnetic first reference electrode disposed away from the first ferromagnetic layer and the second ferromagnetic layer on the semiconductor channel layer, wherein, current is input from the second ferromagnetic layer to the first ferromagnetic layer through the semiconductor channel layer, a voltage between the second ferromaagnetic layer and the first reference electrode is measured.
A fuel filling aperture device, comprising: a closing member turned to an open position by an insertion of a fuel filling nozzle (N) to open a fuel filling aperture , wherein the closing member includes a pair of flap members , and urging devices urging the respective pair of flap members to be positioned at a closed position, the pair of flap members respectively includes a turning assembly portion which becomes a center of turning, and an abutment portion relative to the other flap member , characterized in that a surface portion of each of the pair of flap members includes a seal projecting piece abutting against an opening edge portion of a pass-through opening of the fuel filling nozzle (N) at the closed position, and an edge projecting piece continuing to a terminal of the seal projecting piece and forming an edge of at least one portion of the abutment portion . a closing member turned to an open position by an insertion of a fuel filling nozzle (N) to open a fuel filling aperture , wherein the closing member includes a pair of flap members , and urging devices urging the respective pair of flap members to be positioned at a closed position, the pair of flap members respectively includes a turning assembly portion which becomes a center of turning, and an abutment portion relative to the other flap member , characterized in that a surface portion of each of the pair of flap members includes a seal projecting piece abutting against an opening edge portion of a pass-through opening of the fuel filling nozzle (N) at the closed position, and an edge projecting piece continuing to a terminal of the seal projecting piece and forming an edge of at least one portion of the abutment portion .
Method for synchronization of a multitude of wearable devices (1.1, 1.2), - wherein each wearable device (1.1, 1.2) is attached to a body (B) of a living organism, wherein - a software application running on a coordination device sends an application time information to each wearable device (1.1, 1.2) such as to allow the wearable devices (1.1, 1.2) to synchronize, - each wearable device (1.1, 1.2) stores the application time information and starts a counter for maintaining a wearable device time in line with the application time information, wherein - in each particular wearable device (1.1, 1.2), the counter of that particular wearable device (1.1, 1.2) uses a sampling rate of at least one pulse sensor comprised in that particular wearable device (1.1, 1.2) for counting, characterized in that - at least one wearable device (1.1, 1.2) periodically sends a distinct shape electrical impulse through the body to the other wearable devices (1.1, 1.2) so that the other wearable devices (1.1, 1.2) can use that distinct shape electrical impulse for synchronization, wherein - the distinct shape electrical impulse has an amplitude that is higher than a typical amplitude of an ECG signal . - wherein each wearable device (1.1, 1.2) is attached to a body (B) of a living organism, wherein - a software application running on a coordination device sends an application time information to each wearable device (1.1, 1.2) such as to allow the wearable devices (1.1, 1.2) to synchronize, - each wearable device (1.1, 1.2) stores the application time information and starts a counter for maintaining a wearable device time in line with the application time information, wherein - in each particular wearable device (1.1, 1.2), the counter of that particular wearable device (1.1, 1.2) uses a sampling rate of at least one pulse sensor comprised in that particular wearable device (1.1, 1.2) for counting, characterized in that - at least one wearable device (1.1, 1.2) periodically sends a distinct shape electrical impulse through the body to the other wearable devices (1.1, 1.2) so that the other wearable devices (1.1, 1.2) can use that distinct shape electrical impulse for synchronization, wherein - the distinct shape electrical impulse has an amplitude that is higher than a typical amplitude of an ECG signal .
A channel state indication method, comprising: obtaining , by a first network device , channel state information; generating , by the first network device , channel state indication information, wherein the channel state indication information comprises an absolute value of the channel state information or an offset value of the channel state information relative to reference channel state information; and sending , by the first network device , the channel state indication information to a second network device , wherein, if the channel state information corresponds to repeated transmission of a transport block and channels used for repeated transmissions of the transport block occupy a same frequency domain resource, the channel state indication information comprises the offset value of the channel state information relative to the reference channel state information, and if the channel state information corresponds to repeated transmission of a transport block and a frequency domain resource of a channel used for transmission of the transport block at a specific time is different from a frequency domain resource of a channel used for transmission of the transport block at a previous time,; the channel state information comprises the absolute value of the channel state information, wherein the transport block is a data block. obtaining , by a first network device , channel state information; generating , by the first network device , channel state indication information, wherein the channel state indication information comprises an absolute value of the channel state information or an offset value of the channel state information relative to reference channel state information; and sending , by the first network device , the channel state indication information to a second network device , wherein, if the channel state information corresponds to repeated transmission of a transport block and channels used for repeated transmissions of the transport block occupy a same frequency domain resource, the channel state indication information comprises the offset value of the channel state information relative to the reference channel state information, and if the channel state information corresponds to repeated transmission of a transport block and a frequency domain resource of a channel used for transmission of the transport block at a specific time is different from a frequency domain resource of a channel used for transmission of the transport block at a previous time,; the channel state information comprises the absolute value of the channel state information, wherein the transport block is a data block.
A method for preparing a medical implant, comprising forming an oxidation ceramic layer on a surface of zirconium or a zirconium alloy, wherein the formation of the oxidation ceramic layer on a surface of zirconium or a zirconium alloy comprises steps of: 1) lowering a roughness of a targeted area of the zirconium or zirconium alloy on which a surface oxidization treatment is to be performed, the roughness being controlled to 0.01 μm or less; 2) performing the surface oxidation treatment by heating to a temperature in the range of 500°C to 700 °C and maintaining the temperature for 0.5-10 h in an atmosphere containing an oxidizing gas to form an oxidation ceramic surface layer; and 3) introducing an inactive gas to replace the oxidizing gas used in step 2) and initiating a cooling process to complete preparation of the oxidation ceramic surface layer without performing a subsequent treatment of lowering a roughness of the oxidation ceramic surface layer. 1) lowering a roughness of a targeted area of the zirconium or zirconium alloy on which a surface oxidization treatment is to be performed, the roughness being controlled to 0.01 μm or less; 2) performing the surface oxidation treatment by heating to a temperature in the range of 500°C to 700 °C and maintaining the temperature for 0.5-10 h in an atmosphere containing an oxidizing gas to form an oxidation ceramic surface layer; and 3) introducing an inactive gas to replace the oxidizing gas used in step 2) and initiating a cooling process to complete preparation of the oxidation ceramic surface layer without performing a subsequent treatment of lowering a roughness of the oxidation ceramic surface layer.
A lid for a canister comprising a head portion and a cylindrical portion , said head portion including suction ports to which suction tubes may be attached, and a vacuum port wherein the cylindrical portion : is hollow and in communication with the suction and vacuum ports ; has an outer diameter that is less than the outer diameter of the head portion and is on a side of the head that forms a lower surface of the lid, the cylindrical portion extending away from the ports and the lid further comprises a tab mounted on a circumferential edge of the head portion and characterised in that the head portion comprises associated caps for the suction ports and vacuum port . is hollow and in communication with the suction and vacuum ports ; has an outer diameter that is less than the outer diameter of the head portion and is on a side of the head that forms a lower surface of the lid, the cylindrical portion extending away from the ports and the lid further comprises a tab mounted on a circumferential edge of the head portion and characterised in that the head portion comprises associated caps for the suction ports and vacuum port .
Sensing device for a portable electronic device, in particular a communication device or a wearable device, the sensing device comprising: an acoustic wave sensing means, in particular a microphone ; a gas sensing means ; and a membrane, wherein the acoustic wave sensing means and the gas sensing means are integrated in one device, and characterised in that the gas sensing means senses a reference volume of gas, wherein said reference volume of gas is determined based on an electrical signal representative of a movement and/or deformation of the membrane; and in that the acoustic wave sensing means is provided over a substrate and the gas sensing means is stacked over the acoustic wave sensing means . an acoustic wave sensing means, in particular a microphone ; a gas sensing means ; and a membrane, wherein the acoustic wave sensing means and the gas sensing means are integrated in one device, and characterised in that the gas sensing means senses a reference volume of gas, wherein said reference volume of gas is determined based on an electrical signal representative of a movement and/or deformation of the membrane; and in that the acoustic wave sensing means is provided over a substrate and the gas sensing means is stacked over the acoustic wave sensing means .
Singling apparatus for granular material, in particular seed, wherein the singling apparatus comprises a conveying device mounted in a rotatable manner in a housing , said conveying device conveying granular material from a receiving region into a dispensing region and cooperating with a housing wall or a guide element such that the number of conveyed grains of the granular material decreases from the receiving region to the dispensing region, wherein, in the dispensing region, an outlet opening is arranged, via which a grain of the granular material that is conveyed by the conveying device into the dispensing region can be discharged from the housing and can be transferred to a dispensing device, wherein the singling apparatus comprises a sensor , with which the number of grains of the granular material that are discharged from the housing and transferred to the dispensing device is able to be determined; wherein a measurement signal of the sensor is able to be transmitted to a control device, and wherein the control device is configured such that it controls or regulates the rotational speed of the conveying device on the basis of the measurement signal; and characterized in that the sensor is configured such that the number of grains discharged within a particular time period is able to be determined for a multiplicity of time periods, and wherein the control device is configured such that it uses a distribution, determined on the basis of measurement signals of the sensor , of the number of grains dispensed by the singling apparatus per time period to control or regulate the rotational speed of the conveying device .