mhurhangee/patent-ind-claim-en huggingface dataset:
A cutter head for a hair cutting machine with an upper blade and a lower blade that is adjustable relative to the upper blade by means of an actuating element , comprising a support with an adjusting element , which is adjustable relative to the support by means of the actuating element , and which effects a relative movement along the cutting direction between the upper blade and the lower blade, and which possesses a U- and/or C-shaped cross section and with its cross or base leg is connected to the lower blade , whereby for adjusting the adjusting element a first element interacts via the actuating element with at least one of the lateral legs , characterized in that mounted in the support is a shaft , from which protrudes the first element , and in that the actuating element is embodied to selectively be inserted into one of two opposing side areas of the adjusting element and to be detachably connected to the shaft.
A method of manufacturing a surface-coated cutting tool including a base material and a coating film formed on said base material, said coating film including at least one TiB 2 layer, said method comprising the step of: forming said TiB 2 layer, characterized in that said step is performed by forming said TiB 2 layer at a film formation rate equal to or less than 1 μm/hr by a chemical vapor deposition method, wherein the base material is a WC-based cemented carbide. forming said TiB 2 layer, characterized in that said step is performed by forming said TiB 2 layer at a film formation rate equal to or less than 1 μm/hr by a chemical vapor deposition method, wherein the base material is a WC-based cemented carbide.
A method of rotational spectroscopy, comprising: using a pulsed jet, injecting an analyte and a chiral tag into a sample cell comprising a resonant cavity; electrically exciting multiple modes of the resonant cavity with radiation in the microwave, millimeter, or terahertz frequency range; electrically obtaining a time-domain response from a sample comprising the analyte and the chiral tag, the response elicited by the electrically exciting the resonant cavity; and determining a rotational spectrum of the sample from the time-domain response. using a pulsed jet, injecting an analyte and a chiral tag into a sample cell comprising a resonant cavity; electrically exciting multiple modes of the resonant cavity with radiation in the microwave, millimeter, or terahertz frequency range; electrically obtaining a time-domain response from a sample comprising the analyte and the chiral tag, the response elicited by the electrically exciting the resonant cavity; and determining a rotational spectrum of the sample from the time-domain response.
A power management and distribution system , comprising a power feed line configured to supply electric power of a given power feed line voltage, a plurality of loads (14_1 - 14_5) to be supplied with power from the power feed line , each of the loads (14_1 - 14_5) requiring power of a characteristic load voltage, and a plurality of solid state power controllers (SSPCs) (16_1 - 16_5) connected between the power feed fine and the plurality of loads (14_1 - 14_5), each of the solid state power controllers (16_1 - 16_5) configured to selectively connect a respective load of the plurality of loads (14_1 - 14_5) to the power feed line or to disconnect the respective load of the plurality of loads (14_1 - 14_2) from the power feed line ; wherein the power management and distribution system further comprises at least one power conversion module (18A, 18B; 18A, 18C) configured to convert electric power from the power feed line voltage to a specific load voltage required by at least one of the loads (14_1 - 14_3, 14_4 - 14_5), the at least one power conversion module (18A, 18B; 18A, 18C) connected in between the power feed line and the solid state power controllers (16_1 - 16_3, 16_4 - 16_5) assigned to loads requiring the specific load voltage; chararacterized by comprising a solid state power controller module including a substrate having mounted thereon each of the power conversion modules (18A, 18B; 18A; 18C) and each of the solid state power controllers (16_1 - 16_3, 16_4 - 16_5) assigned to the respective power conversion module.
A portable electronic device comprising: a glass housing structure comprising: a front glass sheet defining a front exterior surface of the portable electronic device ; a rear glass sheet defining a rear exterior surface of the portable electronic device ; and a glass sidewall structure positioned between the front and rear glass sheets, fused to the front glass sheet, and defining at least a portion of a side exterior surface of the portable electronic device , the front glass sheet and the glass sidewall structure defining a curved surface having a curved exterior profile that extends from the front exterior surface to the side exterior surface; and a display positioned within the glass housing structure. a glass housing structure comprising: a front glass sheet defining a front exterior surface of the portable electronic device ; a rear glass sheet defining a rear exterior surface of the portable electronic device ; and a glass sidewall structure positioned between the front and rear glass sheets, fused to the front glass sheet, and defining at least a portion of a side exterior surface of the portable electronic device , the front glass sheet and the glass sidewall structure defining a curved surface having a curved exterior profile that extends from the front exterior surface to the side exterior surface; and a front glass sheet defining a front exterior surface of the portable electronic device ; a rear glass sheet defining a rear exterior surface of the portable electronic device ; and a glass sidewall structure positioned between the front and rear glass sheets, fused to the front glass sheet, and defining at least a portion of a side exterior surface of the portable electronic device , the front glass sheet and the glass sidewall structure defining a curved surface having a curved exterior profile that extends from the front exterior surface to the side exterior surface; and a display positioned within the glass housing structure.
Dairy food composition consisting of: - 15 to 80% by weight of milk fat relative to the total weight of the composition; in the case where the target texture of said dairy food composition is a brittle behaviour at room temperature with a melting texture in the mouth, the solid liquid curve of the milk fat is defined as follows: Temperature (°C) 4 10 15 20 25 30 35 % range of fat solid ratio 65-95 55-95 50-90 35-75 15-50 0-20 0-10 in the case where the target texture of said dairy food composition is a spreadable behaviour, the solid liquid curve of the milk fat is defined as follows: Temperature (°C) 4 10 15 20 25 30 35 % range of fat solid ratio 0-30 0-20 0-15 0-10 0-5 0-1 0-1 - 5 to 45% by weight of milk proteins relative to the total weight of the composition; - 25 to 80% by weight of milk carbohydrates relative to the total weight of the composition; - optionally up to 1% by weight of at least one emulsifier relative to the total weight of said dairy food composition; said dairy food composition is such that: - it contains a dry extract greater than 93% by weight relative to the total weight of the composition, and - it has a particle size such that its Mie diameter D [4.3] is between 5 and 25μm. - 15 to 80% by weight of milk fat relative to the total weight of the composition; - 5 to 45% by weight of milk proteins relative to the total weight of the composition; - 25 to 80% by weight of milk carbohydrates relative to the total weight of the composition; - optionally up to 1% by weight of at least one emulsifier relative to the total weight of said dairy food composition; - it contains a dry extract greater than 93% by weight relative to the total weight of the composition, and - it has a particle size such that its Mie diameter D [4.3] is between 5 and 25μm.
Domestic appliance , in particular domestic refrigeration appliance, having a carcass , a storage space arranged in the carcass , and a door leaf designed for opening and closing the storage space , said door leaf being mounted rotatably relative to the carcass by means of at least one bearing apparatus , which has a bearing journal formed in a single piece on a bearing arm , and a bearing bushing that is plugged onto the bearing journal and has a bearing surface arranged concentrically to a pivot axis of the bearing apparatus , wherein the bearing apparatus has a torsion-proof securing element arranged radially outside the bearing surface for connecting the bearing bushing to the bearing journal in a torsion-proof manner, and the torsion-proof securing element is formed on the bearing arm holding the bearing journal and a skirt arranged on, and protruding from, the bearing bushing , wherein a pin protruding from the skirt engages into a socket of the bearing arm , characterised in that a radial play present between pin and socket in respect of the pivot axis is greater than a tangential play present between pin and socket in respect of the pivot axis , in particular, that the radial play is formed by a clearance fit and the tangential play is formed by a press fit.
Mechatronic assembly for driving a component intended to be connected to both a continuous electrical power source and an ECU control unit comprising a computer for executing a servo-control algorithm which produces direction and torque information , said assembly comprising an actuator formed by an N-phase (where N > 1) polyphase brushless electric motor , binary sensors for detecting the position of the rotor of said motor , an electronic circuit comprising a power bridge for supplying the N phases of the motor , characterized in that said assembly additionally comprises an on-board electronic driver circuit without a microcontroller, computer or memory, the input of which circuit receives said direction and torque information from the ECU and the output of which circuit controls said power bridge , thereby ensuring self-commutation of the motor , by combining the information from the direction and torque signal , from the binary sensors for detecting the position of the rotor and from a commutation logic which directly modulates the current of the continuous electrical power source applied to each of said phases of the motor , and in that the torque and direction information provided by the ECU is separate from the power signal produced only by the power source .
Method for skiving a workpiece (50; 70) with a rotationally symmetrical, periodic structure using a skiving tool comprising a plurality of cutters , comprising the following steps: - rotating the skiving tool about a first axis of rotation (R1), - coupled rotation of the workpiece (50; 70) about a second axis of rotation (R2), - performing an axial feed motion of the skiving tool with respect to the workpiece (50; 70) in a direction parallel to the second axis of rotation (R2), wherein the two axes of rotation (R1, R2) are skewed relative to one another by an axis cross angle (Σ) during the skiving process, wherein an effective cutting speed ( v ce ) is produced at the cutters and an effective feed speed ( v v e ) is produced as a result of the feed movement, characterized in that the direction of the effective cutting speed ( v ce ) and the direction of the effective feed speed ( v ve ) enclose an obtuse angle (η) which lies in a range which is greater than 90 degrees and less than or equal to 180 degrees, and in that an effective rake angle course at the cutter head of the skiving tool is obtained where the value of the effective rake angle (ys) is in the range between 60 and -10 degrees. - rotating the skiving tool about a first axis of rotation (R1), - coupled rotation of the workpiece (50; 70) about a second axis of rotation (R2), - performing an axial feed motion of the skiving tool with respect to the workpiece (50; 70) in a direction parallel to the second axis of rotation (R2), wherein the two axes of rotation (R1, R2) are skewed relative to one another by an axis cross angle (Σ) during the skiving process, wherein an effective cutting speed ( v ce ) is produced at the cutters and an effective feed speed ( v v e ) is produced as a result of the feed movement, characterized in that the direction of the effective cutting speed ( v ce ) and the direction of the effective feed speed ( v ve ) enclose an obtuse angle (η) which lies in a range which is greater than 90 degrees and less than or equal to 180 degrees, and in that an effective rake angle course at the cutter head of the skiving tool is obtained where the value of the effective rake angle (ys) is in the range between 60 and -10 degrees.
Motor-vehicle interior lighting system with a multiplicity of light sources (LED1, LED2, LED3), with a control means (STE1, STE2) for controlling the light sources (LED1, LED2, LED3), with a multiplicity of light guides (L1, L2, L3), with a vehicle interior door trim (IS), and with a substantially transparent diffuser (SS) which is placed on a recess (AN) in the vehicle interior door trim, and by which the light guides (L1, L2, L3) are held, wherein the light sources (LED1, LED2, LED3) and light guides (L1, L2, L3) are configured and arranged relative to each other such that light from different light sources (LED1, LED2, LED3) is coupled into different light guides (L1, L2, L3), wherein the light guides (L1, L2, L3) in each case have a plurality of coupling-out regions (LAF) spaced apart in the main light propagation direction within the light guide, wherein the coupling-out regions (LAF) of different light guides (L1, L2, L3) are arranged offset relative to each other in the main light propagation direction, wherein the control means (STE1, STE2) is configured such that the different light sources (LED1, LED2, LED3) are switched into a light-emitting state offset timewise from each other.
A fluid flow sensor adapted for measuring a fluid velocity over a range of fluid velocities, comprising: a plurality of cams ; an obstruction member coupled to a first cam in the plurality of cams; an arcuate appendage coupled to a second cam in the plurality of cams, wherein the arcuate appendage is configured to rotate about the second cam; and a spring coupled to at least one of the plurality of cams, wherein the plurality of cams is configured to convert a rotation of the obstruction member into a rotation of the arcuate appendage, and wherein the plurality of cams and the torsion spring are configured to linearize a rotation of the arcuate appendage over the range of fluid velocities, characterized in that the obstruction member is rotatable about the first cam relative to the fluid velocity, and in that the spring is a torsion spring. a plurality of cams ; an obstruction member coupled to a first cam in the plurality of cams; an arcuate appendage coupled to a second cam in the plurality of cams, wherein the arcuate appendage is configured to rotate about the second cam; and a spring coupled to at least one of the plurality of cams, wherein the plurality of cams is configured to convert a rotation of the obstruction member into a rotation of the arcuate appendage, and wherein the plurality of cams and the torsion spring are configured to linearize a rotation of the arcuate appendage over the range of fluid velocities, characterized in that the obstruction member is rotatable about the first cam relative to the fluid velocity, and in that the spring is a torsion spring.
A method for recognizing a weak point in an original program using a test program , the original program being configured to perform a predetermined function on input data (D) when executed in a predetermined runtime environment and the test program being configured to execute the same predetermined function on the input data (D) when executed in the predetermined runtime environment as the original program , comprising: executing (S1) the original program and the test program in parallel on identical input data (D) in the predetermined runtime environment ; obtaining (S2) a test information characterizing the execution of the test program ; and determining (S3) whether the original program has a weak point based on a comparison of the test information with a predetermined weak point information indicating conditions for recognizing weak points. executing (S1) the original program and the test program in parallel on identical input data (D) in the predetermined runtime environment ; obtaining (S2) a test information characterizing the execution of the test program ; and determining (S3) whether the original program has a weak point based on a comparison of the test information with a predetermined weak point information indicating conditions for recognizing weak points.
Renovation packer for at least partially renovating elements and in particular pipes, having an elastic main body which can be expanded at least in sections by the application of a flowing medium, wherein the elastic main body extends in a predetermined longitudinal direction (L) and wherein the main body has an outer surface which also extends in the longitudinal direction (L) and which can preferably be brought into contact with the element to be renovated at least in a central region (B) arranged in this longitudinal direction (L), characterized in that the renovation packer has an opening which extends at least in sections within the elastic main body in the longitudinal direction (L), wherein this opening being a through-opening which extends from a first end face of the main body to a second end face of the main body , and a tubular body which is a flexible body and forms the opening is arranged within the main body .
A control method for controlling a spring loaded brake actuator comprising a first chamber (Ch1) to receive a parking brake pressure (PBR) acting against a main spring exerting a parking brake force, and a second chamber (Ch2) to receive a service brake pressure (SB) for applying a service brake force, the spring loaded brake actuator being configured to apply a total braking force (F) to a brake caliper which is the sum of the service brake force and the parking brake force, characterised in the method comprising a circumstantial selection of one control law among a set of control laws comprising at least first and second compound control laws : - where the first compound control law (CL1), known as anti-compound mode, is such that at least the service brake pressure (SB) is electronically controlled such that the resulting total braking force (F) does not exceed a first upper limit (UL1) corresponding to the force of the main spring when the parking brake pressure (PBR) is substantially null, - where the second compound control law (CL2), known as controlled-compound mode, is such that at least the service brake pressure (SB) is electronically controlled such that the resulting total braking force (F) does not exceed a second upper limit (UL2) higher than the first upper limit. - where the first compound control law (CL1), known as anti-compound mode, is such that at least the service brake pressure (SB) is electronically controlled such that the resulting total braking force (F) does not exceed a first upper limit (UL1) corresponding to the force of the main spring when the parking brake pressure (PBR) is substantially null, - where the second compound control law (CL2), known as controlled-compound mode, is such that at least the service brake pressure (SB) is electronically controlled such that the resulting total braking force (F) does not exceed a second upper limit (UL2) higher than the first upper limit.
An electrode assembly package structure comprising a package side and a sealing side extending along a length of the electrode assembly package structure , wherein the sealing side comprises a first sealing segment that abuts the package side and a second sealing segment that is between the package side and the first sealing segment , wherein the second sealing segment is formed by folding a portion of the sealing side extending beyond an end of the electrode assembly package structure along the length direction (L), characterized in that in the length direction (L) of the electrode assembly package structure , the length of the second sealing segment beyond the electrode assembly is less than or equal to 0.3 mm. wherein the sealing side comprises a first sealing segment that abuts the package side and a second sealing segment that is between the package side and the first sealing segment , wherein the second sealing segment is formed by folding a portion of the sealing side extending beyond an end of the electrode assembly package structure along the length direction (L), characterized in that in the length direction (L) of the electrode assembly package structure , the length of the second sealing segment beyond the electrode assembly is less than or equal to 0.3 mm.
A stable recombinant cell line comprising recombinant cardiomyocytes stably expressing hERG, wherein the cell line is designated hMYO-hERG (ATCC Designation No. PTA-123324).
A method of allowing users to access data manipulation services to generate computer executable code, the method including using one or more processing systems to: a) Store component specifications of a number of components, each component representing a respective data manipulation service implemented by a respective entity, each component specification indicating at least the service embodied by the component and inputs and outputs for receiving or providing data to be manipulated; and, b) Provide the component specifications of one or more selected components to users, thereby allowing the users to define a component combination defining a sequence of data manipulation services for manipulating data that is transferred between the components in the component combination; characterised in that at least some of the components are adapted to generate respective computer executable code fragments, such that when the component combination is implemented, computer executable code is generated. a) Store component specifications of a number of components, each component representing a respective data manipulation service implemented by a respective entity, each component specification indicating at least the service embodied by the component and inputs and outputs for receiving or providing data to be manipulated; and, b) Provide the component specifications of one or more selected components to users, thereby allowing the users to define a component combination defining a sequence of data manipulation services for manipulating data that is transferred between the components in the component combination; characterised in that at least some of the components are adapted to generate respective computer executable code fragments, such that when the component combination is implemented, computer executable code is generated.