mhurhangee/patent-ind-claim-en huggingface dataset:
Rotor of a dual centrifuge, which rotor is adapted to be rotatable around a drive axle (A) in a centrifuge, comprising at least two rotary units arranged symmetrically to one another, each having a bearing and a rotary head connected to the bearing and mounted rotatably therein via a rotation axis (R1, R2), wherein the rotary head can be driven relative to the rotor by an additional rotating mechanism of the centrifuge about the rotation axis (R1, R2) and has a rotary head mount for at least one sample container or at least one sample container receptacle , with the rotation axis (R1, R2) of the rotary head being aligned obliquely to the drive axle (A) of the rotor, the rotary head mount being designed to receive an elongate sample container receptacle or an elongate sample container, with the longitudinal axis of the sample container receptacle inserted into the rotary head mount or the longitudinal axis of the sample container inserted into the rotary head mount being perpendicular to the rotation axis (R1, R2) of the rotary head or being oriented between more than 0° and less than 90° to the rotation axis (R1, R2), wherein two of the rotary units are provided which are of the same design, wherein the rotary units are aligned identically in a zero position (N) with respect to the drive axle (A), with the rotary head mounts in the rotary unit each being arranged and aligned identically, and with the rotary units performing a synchronous movement together with the rotary head mounts , the sample container receptacles and/or the sample containers during operation, and wherein the additional rotary mechanism is designed in such a way that a first gearwheel, which is stationary relative to a motor shaft, and a second gearwheel , which is connected to the rotary head , are provided, wherein the motor shaft drives the rotor and by the rotary movement of the rotor drives the second gearwheel relative to the stationary first gearwheel, which second gearwheel is operatively connected to the first gearwheel, characterized in that a first bore is provided in the zero position (N) in each rotary head , which bore passes through the second gearwheel and, in the zero position (N), is aligned with a corresponding second bore in a rotor head , wherein a pin can be inserted into the first bore and second bore in the zero position (N) of the rotary unit , thereby securing the rotary unit in the zero position (N) to prevent it from rotating out of the zero position (N).
A device for allocating a time and frequency resource for a resource request indicator, RRI, characterized in that the device comprises: a unit , configured to allocate codes for the RRI and another uplink control signaling, wherein the RRI and the other uplink control signaling are multiplexed in a same time and frequency resource in a code division manner, wherein a first code allocated for the RRI and a second code allocated for the RRI are allocated for one user terminal in one time slot, wherein the first code allocated for the RRI is orthogonal with a code allocated for a pilot part of the other uplink control signaling in a time domain and/or a frequency domain, and the second code allocated for the RRI is orthogonal with a code allocated for a data part of the other uplink control signaling in the time domain and/or the frequency domain, and wherein the first code allocated for the RRI and the code allocated for the pilot part of the other uplink control signaling are to be sent in the same time and frequency resource, and the second code allocated for the RRI and the code allocated for the data part of the other uplink control signaling are to be sent in the same time and frequency resource. a unit , configured to allocate codes for the RRI and another uplink control signaling, wherein the RRI and the other uplink control signaling are multiplexed in a same time and frequency resource in a code division manner, wherein a first code allocated for the RRI and a second code allocated for the RRI are allocated for one user terminal in one time slot, wherein the first code allocated for the RRI is orthogonal with a code allocated for a pilot part of the other uplink control signaling in a time domain and/or a frequency domain, and the second code allocated for the RRI is orthogonal with a code allocated for a data part of the other uplink control signaling in the time domain and/or the frequency domain, and wherein the first code allocated for the RRI and the code allocated for the pilot part of the other uplink control signaling are to be sent in the same time and frequency resource, and the second code allocated for the RRI and the code allocated for the data part of the other uplink control signaling are to be sent in the same time and frequency resource.
Skylight window , in particular a residential skylight window, having a blind frame and a sash frame which is mounted rotatably about at least one sash frame axis of rotation relative to the blind frame , and having an opening limiting device for limiting a rotary movement of the sash frame relative to the blind frame to a specific sash frame rotation angle range, wherein the opening limiting device has a limiting arm which at one of its ends is linearly movably mounted on a guide rail limiting the opening of the roof window and at its other end is rotatably mounted on the blind frame about a limiting arm axis of rotation , characterised by a rotation angle limiter for the limiting arm for limiting a rotational movement of the limiting arm about the limiting arm axis of rotation to a specific limiting arm rotation angle range, wherein the rotation angle limiter has a stop element which, starting from the blind frame , engages at least partially around the limiting arm axis of rotation and has an end stop , which limits the rotary movement of the limiting arm to the limiting arm rotation angle range by abutting the limiting arm against the end stop in such a way, that exceeding the limiting arm rotation angle range in the direction of rotation that occurs when the roof window is opened is prevented.
An apparatus for injecting grouting resin into a drilled hole for rock reinforcement; wherein the apparatus is for feeding bulk-like fluid material and comprises: an injector head which is to be inserted inside the drilled hole ; at least one fluid inlet arrangement connected to the injector head for feeding a resin base component (A) and a resin catalyst (B) to the injector head ; and an elongated tubular cover element surrounding the fluid inlet arrangement ; wherein the injector head is provided with a mixing device for mixing the fed resin base component (A) and the catalyst (B) together, whereby the mixing device is configured to be fed together with the injector head and the cover element inside the drilled hole ; the injector head comprises a valve assembly which is located inside a flexible feed hose serving as the tubular cover element; characterised in that the injector head is a grouting resin feeding tool, whereby the tool is removed from the drilled hole when the resin feeding is completed and before a separate rock bolt is fed into the drilled hole filled with the grouting resin . an injector head which is to be inserted inside the drilled hole ; at least one fluid inlet arrangement connected to the injector head for feeding a resin base component (A) and a resin catalyst (B) to the injector head ; and an elongated tubular cover element surrounding the fluid inlet arrangement ; wherein the injector head is provided with a mixing device for mixing the fed resin base component (A) and the catalyst (B) together, whereby the mixing device is configured to be fed together with the injector head and the cover element inside the drilled hole ; the injector head comprises a valve assembly which is located inside a flexible feed hose serving as the tubular cover element; characterised in that the injector head is a grouting resin feeding tool, whereby the tool is removed from the drilled hole when the resin feeding is completed and before a separate rock bolt is fed into the drilled hole filled with the grouting resin .
An inert gas generating system comprising: a source of a liquid hydrocarbon fuel; a fractioning unit configured to receive a portion of the liquid hydrocarbon fuel from the source, the fractioning unit comprising a perm-selective membrane configured to separate the portion of the liquid hydrocarbon fuel into substantially sulfur-free vapors and a sulfur-containing remainder; a partial pressure differential generator in fluid communication with a permeate side of the perm-selective membrane, the partial pressure differential generator being an air source configured to provide an air stream configured to create a partial pressure gradient across the perm-selective membrane by flowing across the permeate side of the perm-selective membrane; and a catalytic oxidation unit configured to receive and react the substantially sulfur-free vapors to produce an inert gas. a source of a liquid hydrocarbon fuel; a fractioning unit configured to receive a portion of the liquid hydrocarbon fuel from the source, the fractioning unit comprising a perm-selective membrane configured to separate the portion of the liquid hydrocarbon fuel into substantially sulfur-free vapors and a sulfur-containing remainder; a partial pressure differential generator in fluid communication with a permeate side of the perm-selective membrane, the partial pressure differential generator being an air source configured to provide an air stream configured to create a partial pressure gradient across the perm-selective membrane by flowing across the permeate side of the perm-selective membrane; and a catalytic oxidation unit configured to receive and react the substantially sulfur-free vapors to produce an inert gas.
Method for producing a contact element for a vacuum switch , comprising the following steps: - introducing a first powder-like mixture , comprising particles of a first conductive material and particles of a second conductive material, or a first pre-pressed, disk-shaped green body consisting of a composite of at least a first and a second conductive material, into a pressing die ; - introducing an inner pressing stamp into the die ; - pouring a second powder of the first conductive material or a second powder-like mixture, comprising particles of the first conductive material, or a second pre-pressed green body, comprising the first conductive material, into an intermediate space between the die and inner pressing stamp ; characterized by the following steps: - introducing an outer pressing stamp into the intermediate space between the die and inner pressing stamp ; and - exerting pressing pressure (A, B) on the outer pressing stamp and on the inner pressing stamp in such a way that a disk-shaped region forming a contact disk of the contact element is created from the first powder-like mixture or the first green body, and a region forming a contact body of the contact element is created from the second powder or the second powder-like mixture or the second green body. - introducing a first powder-like mixture , comprising particles of a first conductive material and particles of a second conductive material, or a first pre-pressed, disk-shaped green body consisting of a composite of at least a first and a second conductive material, into a pressing die ; - introducing an inner pressing stamp into the die ; - pouring a second powder of the first conductive material or a second powder-like mixture, comprising particles of the first conductive material, or a second pre-pressed green body, comprising the first conductive material, into an intermediate space between the die and inner pressing stamp ; - introducing an outer pressing stamp into the intermediate space between the die and inner pressing stamp ; and - exerting pressing pressure (A, B) on the outer pressing stamp and on the inner pressing stamp in such a way that a disk-shaped region forming a contact disk of the contact element is created from the first powder-like mixture or the first green body, and a region forming a contact body of the contact element is created from the second powder or the second powder-like mixture or the second green body.
An engine start control device for a hybrid vehicle, the hybrid vehicle including an engine , a first clutch , a motor/generator , a second clutch , and driving wheels arranged in order of a transmission path and being capable to select electric travel only with the motor/generator from among the engine and the motor/generator or hybrid travel with cooperation of the engine and the motor/generator , through engaging and disengaging control of the first and second clutches , the engine start control device comprising: - a first engine start system that is configured to engage the first clutch and to start the engine with the motor/generator ; - a second engine start system that is configured to start the engine with a starter motor for starting the engine ; and - an engine start system selecting unit (S11, S12) that is configured to select, based on rotation speed information relating to the electric travel, (i) engine start control using the first engine start system if the rotation speed information is lower than a predetermined speed and (ii) engine start control using the second engine start system if the rotation speed information is the predetermined speed or higher, wherein - the rotation speed information is a vehicle speed (VSP) and - the predetermined vehicle speed (VSP_s) is a vehicle speed when an electric travel driving force generated by an electric travel torque part obtained by subtracting an engine start torque part required for starting the engine from a rated torque of the motor/generator is smaller than the sum of a running resistance and a predetermined acceleration margin part of the vehicle. - a first engine start system that is configured to engage the first clutch and to start the engine with the motor/generator ; - a second engine start system that is configured to start the engine with a starter motor for starting the engine ; and - an engine start system selecting unit (S11, S12) that is configured to select, based on rotation speed information relating to the electric travel, (i) engine start control using the first engine start system if the rotation speed information is lower than a predetermined speed and (ii) engine start control using the second engine start system if the rotation speed information is the predetermined speed or higher, wherein - the rotation speed information is a vehicle speed (VSP) and - the predetermined vehicle speed (VSP_s) is a vehicle speed when an electric travel driving force generated by an electric travel torque part obtained by subtracting an engine start torque part required for starting the engine from a rated torque of the motor/generator is smaller than the sum of a running resistance and a predetermined acceleration margin part of the vehicle.
A device for the transportation and temporary storage of a medical instrument , the device comprising: an instrument bag formed of a plastics material impermeable to bodily fluids, the bag having a bag opening for receiving the instrument ; and a label which has a first portion adhered to an external surface of the bag adjacent to the bag opening and has a second portion which is disposed beyond the bag opening and which has a lower surface at least part of which is adhesive and covered by a removable backing ; wherein: the first portion of the label includes a pocket for receiving a sachet or data carrier ; the second portion of the label includes a tamper-evident portion which exhibits a first visual appearance when first adhered to a surface of the bag , and which exhibits a second visual appearance after it has been adhered to and then removed from a surface of the bag , and subsequently adhered to the same surface of the bag ; and wherein the second visual appearance is different from the first visual appearance. an instrument bag formed of a plastics material impermeable to bodily fluids, the bag having a bag opening for receiving the instrument ; and a label which has a first portion adhered to an external surface of the bag adjacent to the bag opening and has a second portion which is disposed beyond the bag opening and which has a lower surface at least part of which is adhesive and covered by a removable backing ; wherein: the first portion of the label includes a pocket for receiving a sachet or data carrier ; the second portion of the label includes a tamper-evident portion which exhibits a first visual appearance when first adhered to a surface of the bag , and which exhibits a second visual appearance after it has been adhered to and then removed from a surface of the bag , and subsequently adhered to the same surface of the bag ; and wherein the second visual appearance is different from the first visual appearance. the first portion of the label includes a pocket for receiving a sachet or data carrier ; the second portion of the label includes a tamper-evident portion which exhibits a first visual appearance when first adhered to a surface of the bag , and which exhibits a second visual appearance after it has been adhered to and then removed from a surface of the bag , and subsequently adhered to the same surface of the bag ; and wherein the second visual appearance is different from the first visual appearance.
An activity monitoring device for positioning on a body of a user or on an orthopedic device, the activity monitoring device comprising: a housing ; a circuit board assembly positioned in the housing , the circuit board assembly comprising a sensor and a controller , the sensor being configured to detect a movement of the circuit board assembly, the controller being configured to monitor the movement of the circuit board assembly with the sensor ; and a dressing having an upper surface and a lower surface, the upper surface being adhered to or configured to be adhered to the housing , the lower surface being configured to attach to the user or to the orthopedic device, the dressing comprising a flexible film layer , wherein the flexible film layer defines at least in part the upper surface of the dressing , and wherein the flexible film layer is adhered to a base portion of the housing by an adhesive. a housing ; a circuit board assembly positioned in the housing , the circuit board assembly comprising a sensor and a controller , the sensor being configured to detect a movement of the circuit board assembly, the controller being configured to monitor the movement of the circuit board assembly with the sensor ; and a dressing having an upper surface and a lower surface, the upper surface being adhered to or configured to be adhered to the housing , the lower surface being configured to attach to the user or to the orthopedic device, the dressing comprising a flexible film layer , wherein the flexible film layer defines at least in part the upper surface of the dressing , and wherein the flexible film layer is adhered to a base portion of the housing by an adhesive.
A crystalline, anhydrate polymorph of (S)-2-((2-((S)-4-(difluoromethyl)-2-oxooxazolidin-3-yl)-5,6-dihydrobenzo[ f ]imidazo[1,2- d ] oxazepin-9-yl)amino)propanamide designated the Form A polymorph that exhibits an X-ray powder diffraction pattern obtained using an incident beam of Cu K α (1.541904 Å) radiation generated using Cross Beam optics (40 kV×44 mA) having a characteristic peak expressed in degrees 2-theta at approximately 5.7, 11.4, 17.2, 19.0, 19.7, and 24.4.
A battery pack cooling system, comprising: a cooling pipeline provided inside a battery pack, the cooling pipeline being provided with an inlet and an outlet and configured to cool a battery module ; an inlet connecting pipe , which extends into the battery pack and is connected to the inlet , and is provided with a first fool-proofing structure; and an outlet connecting pipe , which extends into the battery pack and is connected to the outlet , and is provided with a second fool-proofing structure, the second fool-proofing structure being different from the first fool-proofing structure; wherein the first fool-proofing structure comprises a first matching member , a case of the battery pack is provided with a first assembly hole adapted to the first matching member , and the first matching member is assembled in the first assembly hole ; the second fool-proofing structure comprises a second matching member , the case of the battery pack is provided with a second assembly hole adapted to the second matching member , and the second matching member is assembled in the second assembly hole ; wherein the first matching member and the second matching member each comprise an oval disk and a protrusion , the protrusion being provided on a side face of the oval disk , and positions of the protrusions of the first matching member and the second matching member on the respective oval disks are different. an inlet connecting pipe , which extends into the battery pack and is connected to the inlet , and is provided with a first fool-proofing structure; and an outlet connecting pipe , which extends into the battery pack and is connected to the outlet , and is provided with a second fool-proofing structure, the second fool-proofing structure being different from the first fool-proofing structure; wherein the first fool-proofing structure comprises a first matching member , a case of the battery pack is provided with a first assembly hole adapted to the first matching member , and the first matching member is assembled in the first assembly hole ; the second fool-proofing structure comprises a second matching member , the case of the battery pack is provided with a second assembly hole adapted to the second matching member , and the second matching member is assembled in the second assembly hole ; wherein the first matching member and the second matching member each comprise an oval disk and a protrusion , the protrusion being provided on a side face of the oval disk , and positions of the protrusions of the first matching member and the second matching member on the respective oval disks are different.