mhurhangee/ep-ind-claims huggingface dataset:
A photoplethysmogram device comprising: a light source configured to emit light to illuminate skin; a photo-detector configured to receive the light illuminating the skin and generate an electrical output as a function of an intensity of the received light; a skin temperature regulator configured to regulate a temperature of the skin, the skin temperature regulator being a heating and/or cooling mechanism configured to heat and/or cool the skin; a thermometer configured to measure the temperature of the skin; and a processor configured to: control the skin temperature regulator to heat or cool the skin toward a predetermined skin temperature based on the measured skin temperature; and generate, based on the electrical output, an output signal indicative of blood properties; wherein the processor is further configured to adjust the predetermined skin temperature based on a tone of the skin. a light source configured to emit light to illuminate skin; a photo-detector configured to receive the light illuminating the skin and generate an electrical output as a function of an intensity of the received light; a skin temperature regulator configured to regulate a temperature of the skin, the skin temperature regulator being a heating and/or cooling mechanism configured to heat and/or cool the skin; a thermometer configured to measure the temperature of the skin; and a processor configured to: control the skin temperature regulator to heat or cool the skin toward a predetermined skin temperature based on the measured skin temperature; and generate, based on the electrical output, an output signal indicative of blood properties; control the skin temperature regulator to heat or cool the skin toward a predetermined skin temperature based on the measured skin temperature; and generate, based on the electrical output, an output signal indicative of blood properties; wherein the processor is further configured to adjust the predetermined skin temperature based on a tone of the skin.
A method of producing a carbon fiber-metal composite material, the method comprising replacing the thermoplastic resin in a carbon fiber composite material with a metal matrix material, wherein the carbon fiber composite material comprises: a thermoplastic resin; carbon nanofibers dispersed in the thermoplastic resin; and dispersing particles which promote dispersion of the carbon nanofibers in the thermoplastic resin; wherein the carbon nanofibers are carbon nanotubes having an average diameter of 0.5 to 500 nm and, as the dispersing particles, there are used metal particles either individually or in combination of two or more, or nonmetal particles of ceramics, glass, either individually or in combination of two or more; and wherein the carbon fiber composite material has a first-component spin-spin relaxation time (T2s) measured at 250°C of 100 to 1,000 μsec, either without the second-component spin-spin relaxation time or the second-component spin-spin relaxation time being less than 20,000 μsec and the fraction of components having the second-component spin-spin relaxation time being less than 0.2, as measured at 250°C by the Hahn-echo method using a pulsed NMR technique with 1 H as an observing nucleus. a thermoplastic resin; carbon nanofibers dispersed in the thermoplastic resin; and dispersing particles which promote dispersion of the carbon nanofibers in the thermoplastic resin; wherein the carbon nanofibers are carbon nanotubes having an average diameter of 0.5 to 500 nm and, as the dispersing particles, there are used metal particles either individually or in combination of two or more, or nonmetal particles of ceramics, glass, either individually or in combination of two or more; and wherein the carbon fiber composite material has a first-component spin-spin relaxation time (T2s) measured at 250°C of 100 to 1,000 μsec, either without the second-component spin-spin relaxation time or the second-component spin-spin relaxation time being less than 20,000 μsec and the fraction of components having the second-component spin-spin relaxation time being less than 0.2, as measured at 250°C by the Hahn-echo method using a pulsed NMR technique with 1 H as an observing nucleus.
A cigarette filter characterized by comprising a cigarette main stream smoke component adsorbent comprising particulate activated carbon and a pullulan film supported by the particulate activated carbon, wherein the adsorbent is free of flavorants.
Device for the protection of a radar of a motor vehicle, comprising the elements: - a body consisting of a material transparent to radar waves and light, - a light source, - a light reflector consisting of a material transparent to radar waves, and - an electrically conductive heating track positioned on the surface or inside the body of transparent material, the elements being arranged in such a way that a light beam emitted by the light source is reflected by the light reflector towards the body in transparent material, characterized in that an air cavity is arranged between the light reflector and the transparent body. - a body consisting of a material transparent to radar waves and light, - a light source, - a light reflector consisting of a material transparent to radar waves, and - an electrically conductive heating track positioned on the surface or inside the body of transparent material,
Method to control a hybrid powertrain, in order to achieve a desired engine speed in a combustion engine, arranged in the hybrid powertrain, wherein the hybrid powertrain also comprises a gearbox with an input shaft and an output shaft; a first planetary gear, connected to the input shaft and a first main shaft; a second planetary gear, connected to the first planetary gear and a second main shaft; a first electrical machine, connected to the first planetary gear; a second electrical machine, connected to the second planetary gear; at least one gear pair (G1, 60, 72), connected with the first main shaft, and therefore with the first planetary gear and the output shaft; and at least one gear pair (G2, 66, 78), connected with the second main shaft, and therefore with the second planetary gear and the output shaft, wherein the combustion engine is connected with the input shaft of the gearbox, comprising the steps: a) ensuring that two rotatable components (22, 26, 50) in the first planetary gear are connected with each other; b) ensuring that all rotatable components (28, 32, 51) of the second planetary gear are disconnected from each other; c) ensuring that a gear is engaged, which corresponds to the at least one gear pair (G2, 66, 78), which is connected with the second planetary gear; d) ensuring that the at least one gear pair (G1, 60, 72), which is connected with the first planetary gear, is disconnected; e) controlling the second electrical machine in such a way that a desired torque (T Drv) is achieved in the output shaft; f) controlling the combustion engine to a desired engine speed (n ice) and g) controlling the first electrical machine in such a way that a desired total power consumption (P EM) for the first and the second electrical machines (14; 16) is achieved. a) ensuring that two rotatable components (22, 26, 50) in the first planetary gear are connected with each other; b) ensuring that all rotatable components (28, 32, 51) of the second planetary gear are disconnected from each other; c) ensuring that a gear is engaged, which corresponds to the at least one gear pair (G2, 66, 78), which is connected with the second planetary gear; d) ensuring that the at least one gear pair (G1, 60, 72), which is connected with the first planetary gear, is disconnected; e) controlling the second electrical machine in such a way that a desired torque (T Drv) is achieved in the output shaft; f) controlling the combustion engine to a desired engine speed (n ice) and g) controlling the first electrical machine in such a way that a desired total power consumption (P EM) for the first and the second electrical machines (14; 16) is achieved.
A method of receiving control information, the method comprising: receiving scheduling configuration information, wherein the scheduling configuration information comprises information about intervals of slots for which cross-slot scheduling configuration is possible; receiving slot format information; determining formats of at least one slot based on the scheduling configuration information and the slot format information; and receiving, based on a result of the determining, at least one of first type control information including a control information for scheduling uplink data and second type control information including a control information for scheduling downlink data, wherein determining of the formats comprises determining, based on the slot format information, formats of at least one slot available for uplink or downlink scheduling configured by the scheduling configuration information. receiving scheduling configuration information, wherein the scheduling configuration information comprises information about intervals of slots for which cross-slot scheduling configuration is possible; receiving slot format information; determining formats of at least one slot based on the scheduling configuration information and the slot format information; and receiving, based on a result of the determining, at least one of first type control information including a control information for scheduling uplink data and second type control information including a control information for scheduling downlink data, wherein determining of the formats comprises determining, based on the slot format information, formats of at least one slot available for uplink or downlink scheduling configured by the scheduling configuration information.
A shower profile for a shower assembly comprising: a body having two elongated sections (140a, 140b) and a rounded section, wherein the rounded section connects the two elongated sections (140a, 140b) with an angle, wherein the rounded section is a bent section, so as to create a soft corner once it is bent during a manufacturing process, comprising a cut-out having an opening for receiving a corner member, said cut-out being defined by first and second edges (146, 147) of the respective first and second elongated sections (140a, 140b), and wherein the two elongated sections (140a, 140b) and the continuous rounded section are provided in one piece.
A hydrogen generating device (10, 10') comprising: an anode; a cathode; a housing having an internal cavity and at least one housing opening; a metal sleeve slid into and disposed within the internal cavity, the metal sleeve having at least one sleeve opening (26, 28) aligned with the at least one housing opening; a perforated wall within the cavity near an end thereof electrically connected to the anode or the cathode and separating an end portion of the cavity from a main portion of the cavity; at least one electrically conductive terminal extending outward from the cavity through the aligned sleeve and housing openings and being in electrical contact with the anode; and water in the housing extending continuously from the main portion of the cavity through the perforated wall and into the end portion of the cavity. an anode; a cathode; a housing having an internal cavity and at least one housing opening; a metal sleeve slid into and disposed within the internal cavity, the metal sleeve having at least one sleeve opening (26, 28) aligned with the at least one housing opening; a perforated wall within the cavity near an end thereof electrically connected to the anode or the cathode and separating an end portion of the cavity from a main portion of the cavity; at least one electrically conductive terminal extending outward from the cavity through the aligned sleeve and housing openings and being in electrical contact with the anode; and water in the housing extending continuously from the main portion of the cavity through the perforated wall and into the end portion of the cavity.
A method for operating a device for air conditioning an interior of a rail vehicle, wherein the device has a duct for guiding an air flow in a flow direction, the duct has an inlet and an outlet for delivering the air flow into the interior, a filter device, a heat exchange apparatus, a fan, and a measuring device for determining a mass flow or a volume flow, and the measuring device is arranged in the duct downstream in the flow direction of the heat exchange apparatus, the fan and the filter device, and wherein the method has the steps: a. specifying a nominal volume flow or mass flow for the air flow; b. determining an actual volume flow or mass flow of the air flow by means of the measuring device; and c. setting a conveying rate of the fan using a control unit so that the volume flow or mass flow matches the nominal volume flow or mass flow of the air flow. a. specifying a nominal volume flow or mass flow for the air flow; b. determining an actual volume flow or mass flow of the air flow by means of the measuring device; and c. setting a conveying rate of the fan using a control unit so that the volume flow or mass flow matches the nominal volume flow or mass flow of the air flow.
A component for a gas turbine engine comprising: a platform having a radially inner side and a radially outer side; a root portion extending from the radially inner side of the platform; and an airfoil extending from the radially outer side of the platform, the airfoil including: a pressure side extending between a leading edge and a trailing edge; a suction side extending between the leading edge and the trailing edge; and a curvature inflection point on the pressure side is located between 30% and 70% of an axial chord (b x) length of the airfoil; wherein the airfoil is a blade and extends from the platform to an unshrouded end and the curvature inflection point occurs at an axial chord length location with the smallest radius of curvature (r) on the pressure side; characterised in that the curvature inflection point at 0% span is axially downstream of the curvature inflection point at 50% span. a platform having a radially inner side and a radially outer side; a root portion extending from the radially inner side of the platform; and an airfoil extending from the radially outer side of the platform, the airfoil including: a pressure side extending between a leading edge and a trailing edge; a suction side extending between the leading edge and the trailing edge; and a curvature inflection point on the pressure side is located between 30% and 70% of an axial chord (b x) length of the airfoil; a pressure side extending between a leading edge and a trailing edge; a suction side extending between the leading edge and the trailing edge; and a curvature inflection point on the pressure side is located between 30% and 70% of an axial chord (b x) length of the airfoil; wherein the airfoil is a blade and extends from the platform to an unshrouded end and the curvature inflection point occurs at an axial chord length location with the smallest radius of curvature (r) on the pressure side; characterised in that the curvature inflection point at 0% span is axially downstream of the curvature inflection point at 50% span.
A machining center including a machine bed having a top surface, a bottom surface that is opposite to said top surface, a machining zone that is defined between said top and bottom surfaces (11, 12), a transferring zone that is defined between said top and bottom surfaces (11, 12), said machining zone and said transferring zone being arranged in a first direction, and a gate that is disposed between said machining and transferring zones (13, 14); a work table unit mounted in said machining zone of said machine bed; and a sliding unit mounted to said top surface, being slidable along a first sliding axis which extends in the first direction, and including a tool spindle that is movably disposed above said work table unit, characterized in that: said machining center further includes a first driving unit mounted in said transferring zone and extending in the first direction, a conveying member disposed between said first driving unit and said bottom surface of said machine bed, and movably mounted to said first driving unit, a second driving unit co-movably mounted to said conveying member, and a loading seat movably mounted to said second driving unit, said first driving unit being operable for driving said conveying member to move along a conveying axis which extends in the first direction, thereby driving said loading seat to move along first adjusting axes which extend in the first direction between said transferring and machining zones (14,13) via said gate, and said second driving unit being operable for driving said loading seat to move along second adjusting axes which extend in a second direction, which are perpendicular to the first direction, and which are substantially vertical. a top surface, a bottom surface that is opposite to said top surface, a machining zone that is defined between said top and bottom surfaces (11, 12), a transferring zone that is defined between said top and bottom surfaces (11, 12), said machining zone and said transferring zone being arranged in a first direction, and a gate that is disposed between said machining and transferring zones (13, 14); a first driving unit mounted in said transferring zone and extending in the first direction, a conveying member disposed between said first driving unit and said bottom surface of said machine bed, and movably mounted to said first driving unit, a second driving unit co-movably mounted to said conveying member, and a loading seat movably mounted to said second driving unit,
A feedback method for policy installation failures, comprising: when the installation of policies sent from an Access-Resource and Admission Control Function to a Resource Control Enforcement Function is failed (306; 401), the Resource Control Enforcement Function generating a feedback message to be sent to the Access-Resource and Admission Control Function (307; 402), characterized in that a policy error reason for each policy installation failure is included in the feedback message, and the policy error reason is added to a policy-rule-report parameter of the feedback message. when the installation of policies sent from an Access-Resource and Admission Control Function to a Resource Control Enforcement Function is failed (306; 401), the Resource Control Enforcement Function generating a feedback message to be sent to the Access-Resource and Admission Control Function (307; 402), characterized in that a policy error reason for each policy installation failure is included in the feedback message, and the policy error reason is added to a policy-rule-report parameter of the feedback message.
A frame for fixation of equipment to the head of a patient during neurological diagnosis, stereotactic imaging, therapy or surgery, said frame being adapted to enclose the head of the patient, said frame comprising a number of mounting slots arranged in said frame, said mounting slots being adapted to receive a number of fixation pins adapted to fixate said frame to a bone in said head, said frame further comprising: - two anterior longitudinal posts and two posterior longitudinal posts, extending along a longitudinal axis A; - an anterior portion, adapted to be arranged at the anterior side of the head, said anterior portion interconnecting said two anterior longitudinal posts; - a posterior portion, adapted to be arranged at the posterior side of the head, said posterior portion interconnecting said two posterior longitudinal posts; wherein said anterior longitudinal posts and said posterior longitudinal posts are interconnected with two lateral portions, adapted to extend one on each side of said head, and wherein said lateral portions are axially offset, along said longitudinal axis A, with respect to said anterior and posterior portion (5, 6) and wherein said anterior portion is adapted to extend superior of the eyes of the patient and said lateral portions are adapted to be arranged inferior of the ears of the patient. - two anterior longitudinal posts and two posterior longitudinal posts, extending along a longitudinal axis A; - an anterior portion, adapted to be arranged at the anterior side of the head, said anterior portion interconnecting said two anterior longitudinal posts; - a posterior portion, adapted to be arranged at the posterior side of the head, said posterior portion interconnecting said two posterior longitudinal posts;
A scope for insertion into the anus, wherein said scope comprises: (a) a tubular casing, a proximal end, a distal end, an internal volume, a longitudinal axis of extension extending from the distal end to the proximal end, a vertical axis extending perpendicularly to the axis of extension and one or more apertures along the length L of the longitudinal axis of extension; (b) a handle having a proximal end and a distal end; and (c) three image capture devices each located within the internal volume of the tubular casing, wherein the three image capture devices are a rearward camera looking along an axis (b) extending between the longitudinal axis of extension and the vertical axis and through a first aperture of the one or more apertures in the tubular casing, a sideward camera looking along the vertical axis and through the first aperture in the tubular casing and a forward camera looking along the longitudinal axis of extension from the proximal end to the distal end of the tubular casing and through the first aperture in the tubular casing. (a) a tubular casing, a proximal end, a distal end, an internal volume, a longitudinal axis of extension extending from the distal end to the proximal end, a vertical axis extending perpendicularly to the axis of extension and one or more apertures along the length L of the longitudinal axis of extension; (b) a handle having a proximal end and a distal end; and (c) three image capture devices each located within the internal volume of the tubular casing,
An apparatus for performing atomic block cryptographic operations comprising: fetch stage logic within an x86-compatible microprocessor, wherein said fetch stage logic is configured to receive an atomic cryptographic instruction as part of an application program executing on said x86-compatible microprocessor, wherein said atomic cryptographic instruction prescribes one of the atomic block cryptographic operations, and wherein said atomic cryptographic instruction prescribes that a user-generated or an application-generated key schedule be employed for execution of said one of the atomic block cryptographic operations; key generation logic, coupled to said fetch stage logic, configured to direct said x86-compatible microprocessor to load said user-generated or said application-generated key schedule; and execution logic, disposed within said x86-compatible microprocessor, operatively coupled to said key generation logic, configured to employ said user-generated or said application-generated key schedule to execute said one of the atomic block cryptographic operations. fetch stage logic within an x86-compatible microprocessor, wherein said fetch stage logic is configured to receive an atomic cryptographic instruction as part of an application program executing on said x86-compatible microprocessor, wherein said atomic cryptographic instruction prescribes one of the atomic block cryptographic operations, and wherein said atomic cryptographic instruction prescribes that a user-generated or an application-generated key schedule be employed for execution of said one of the atomic block cryptographic operations; key generation logic, coupled to said fetch stage logic, configured to direct said x86-compatible microprocessor to load said user-generated or said application-generated key schedule; and execution logic, disposed within said x86-compatible microprocessor, operatively coupled to said key generation logic, configured to employ said user-generated or said application-generated key schedule to execute said one of the atomic block cryptographic operations.