mhurhangee/patent-ind-claim-en huggingface dataset:
A polycarbonate composition comprising the following components: A) from 75 wt.-% to 97.5 wt.-% of a polycarbonate, B) from 1.5 wt.-% to 15 wt.-% of a flow promoter selected from the group consisting of alicyclic hydrocarbon resins, and C) from 1 wt.-% to 15 wt.-% of an impact modifier, the impact modifier being one or more selected from the group consisting of butadiene- and/or styrene-butadiene rubber-based, methyl methacrylate and/or methyl methacrylate-styrene copolymer grafted impact modifiers having a core-shell structure, siloxane-acrylate rubbers having a core-shell structure, acrylate rubber-based core-shell impact modifiers, wherein the composition comprises no polycarbonate copolymer. A) from 75 wt.-% to 97.5 wt.-% of a polycarbonate, B) from 1.5 wt.-% to 15 wt.-% of a flow promoter selected from the group consisting of alicyclic hydrocarbon resins, and C) from 1 wt.-% to 15 wt.-% of an impact modifier, the impact modifier being one or more selected from the group consisting of
A substrate processing apparatus comprising: - a base with an extended, essentially plane process-side surface and a back-side surface , - a substrate support , arranged on the process-side surface and designed to carry a substrate at its periphery, the periphery defining a plane being spaced apart from the process-side surface , - a heating element arranged on the base between the plane defined by said periphery of the substrate support and the process-side surface , the heating element comprising a passage allowing the passage of electromagnetic radiation from the plane defined by said periphery of the substrate support to the process-side surface , - at least one radiation sensor adapted to measure electromagnetic radiation, - at least one radiation channel arranged between the at least one radiation sensor and the plane defined by said periphery of the substrate support , the radiation channel being at least partially permeable to electromagnetic radiation and comprising a passage in the base extending from the process-side surface to the back-side surface , - a first radiation conductor arranged on the back-side surface of the base or at a distance to the back-side surface mounted in a sleeve that is mounted to the back-side surface , or within the passage of the base , and - an additional radiation conductor arranged between the heating element and the first radiation conductor to protect the underlying first radiation conductor . - a base with an extended, essentially plane process-side surface and a back-side surface , - a substrate support , arranged on the process-side surface and designed to carry a substrate at its periphery, the periphery defining a plane being spaced apart from the process-side surface , - a heating element arranged on the base between the plane defined by said periphery of the substrate support and the process-side surface , the heating element comprising a passage allowing the passage of electromagnetic radiation from the plane defined by said periphery of the substrate support to the process-side surface , - at least one radiation sensor adapted to measure electromagnetic radiation, - at least one radiation channel arranged between the at least one radiation sensor and the plane defined by said periphery of the substrate support , the radiation channel being at least partially permeable to electromagnetic radiation and comprising a passage in the base extending from the process-side surface to the back-side surface , - a first radiation conductor arranged on the back-side surface of the base or at a distance to the back-side surface mounted in a sleeve that is mounted to the back-side surface , or within the passage of the base , and - an additional radiation conductor arranged between the heating element and the first radiation conductor to protect the underlying first radiation conductor .
Electric shock protection device for a busbar , wherein the electric shock protection device comprises a covering body , wherein the covering body comprises a receptacle region for receiving the busbar , wherein the covering body comprises a covering portion for covering the busbar on the front side, wherein the covering body comprises a holding portion , wherein a partial region of the holding portion of the covering body , with the busbar arranged in the receptacle region , engages behind the busbar on a side facing away from the covering portion , wherein the electric shock protection device comprises a holding element , wherein the holding element is suitable for preventing unintentional release of the electric shock protection device from the busbar , characterized in that the holding element is mounted displaceably in a guide portion of the covering body , for the purpose of changing a distance between the holding portion and the holding element , wherein the holding element cooperates with the covering body in a form-fitting manner in at least one displacement position.
A modular barbecue system comprising a heating compartment having a bottom wall and a peripheral wall extending upwardly from the bottom wall , said peripheral wall comprising a lower end adjacent to the bottom wall and an upper end , said bottom wall and peripheral walls defining a cavity , and a heat source (38a-38d) provided in said cavity of said heating compartment ; characterized in that the modular barbecue system further comprises: a plurality of add-on components selected from a group consisting of a large basin , a flat basin , a maple sap boiling kit , a double boiler kit , a lid , a strainer , a water heating kit , a charcoal conversion kit , a smoker conversion kit , a steam cooking kit and a boiler kit , said add-on components being adapted to be combined with each other and receivable in said cavity of said heating compartment ; a plurality of steps provided in said cavity of said heating compartment , each of said plurality of steps being configured to support said add-on components in said cavity , said plurality of steps allowing the positioning of said add on components at a corresponding plurality of distances relative to said heat source (38a-38d). a plurality of add-on components selected from a group consisting of a large basin , a flat basin , a maple sap boiling kit , a double boiler kit , a lid , a strainer , a water heating kit , a charcoal conversion kit , a smoker conversion kit , a steam cooking kit and a boiler kit , said add-on components being adapted to be combined with each other and receivable in said cavity of said heating compartment ; a plurality of steps provided in said cavity of said heating compartment , each of said plurality of steps being configured to support said add-on components in said cavity , said plurality of steps allowing the positioning of said add on components at a corresponding plurality of distances relative to said heat source (38a-38d).
A sensor patch for attachment to a base plate for an ostomy appliance, where the sensor patch comprises a distal side and a proximal side comprising at least one adhesive layer , a part of the distal side being adapted for attachment to the base plate and the proximal adhesive side being adapted to adhere to the skin surface of a user, where the sensor patch comprises two or more electrodes and a monitor interface for forming a connection to a monitor device , and where the sensor patch comprises a central portion and a neck portion , the electrodes extending from the central portion to the neck portion , characterised in that the neck portion comprising a flexible element being adapted to allow the central portion and the neck portion to be flexibly movable relative to each other.
An air conditioner comprising: a housing configured to be embedded in a ceiling (C); a suction port formed in the housing and has a rectangular shape, wherein the suction port is provided with a suction grill ; four air outlets formed in the housing and extending along four sides of the suction port ; four louvers that pivot around an axis (A) along an extending direction of each of the air outlets and are configured to guide air conditioning wind blown out from the air outlets in a direction intersecting with the axis (A); a bracket attached to the housing , wherein the bracket has a base that is attachable to the suction grill and four beams that are connected to a lower end of the base ; four ultrasound sensors (M) attached to the bracket and disposed between the air outlets adjacent to each other when viewed from below, wherein each of the four ultrasound sensors (M) are disposed in the tip of each of the four beams . a housing configured to be embedded in a ceiling (C); a suction port formed in the housing and has a rectangular shape, wherein the suction port is provided with a suction grill ; four air outlets formed in the housing and extending along four sides of the suction port ; four louvers that pivot around an axis (A) along an extending direction of each of the air outlets and are configured to guide air conditioning wind blown out from the air outlets in a direction intersecting with the axis (A); a bracket attached to the housing , wherein the bracket has a base that is attachable to the suction grill and four beams that are connected to a lower end of the base ; four ultrasound sensors (M) attached to the bracket and disposed between the air outlets adjacent to each other when viewed from below, wherein each of the four ultrasound sensors (M) are disposed in the tip of each of the four beams .
Field device for an automation system, comprising: - an arithmetic unit that is designed to manage configuration data for operating the field device ; - an operating element that can be actuated by a user and whose actuation can be detected by the arithmetic unit ; - a hardware interface to enable the field device to be connected to a communication system of the automation system or a configuration unit ; characterised in that the arithmetic unit is further designed to put the field device into a configuration mode to change the configuration data, if simultaneously a first signal (sig1) from the operating element , that represents an actuation by a user, and a second signal (sig2) from the hardware interface , that represents the terminal connection of a wired connection, are received. - an arithmetic unit that is designed to manage configuration data for operating the field device ; - an operating element that can be actuated by a user and whose actuation can be detected by the arithmetic unit ; - a hardware interface to enable the field device to be connected to a communication system of the automation system or a configuration unit ;
A location determination apparatus for determining a location of a first object within a second object , wherein the location determination apparatus comprises: - the first object comprising a first ultrasound unit, - a second ultrasound unit for being located outside the second object , wherein the first ultrasound unit and the second ultrasound unit are adapted to transmit ultrasound signals between them and wherein the second ultrasound unit comprises a two dimensional ultrasound transducer for generating two dimensional ultrasound images, - an ultrasound image generation unit adapted to generate a two dimensional ultrasound image of the second object based on ultrasound information from the second ultrasound unit (5; 105, 110), - a location determination unit adapted to determine the location of the first object within the second object with respect to the ultrasound image based on the ultrasound signals transmitted between the first and second ultrasound units and said ultrasound information from the second ultrasound unit. - the first object comprising a first ultrasound unit, - a second ultrasound unit for being located outside the second object , wherein the first ultrasound unit and the second ultrasound unit are adapted to transmit ultrasound signals between them and wherein the second ultrasound unit comprises a two dimensional ultrasound transducer for generating two dimensional ultrasound images, - an ultrasound image generation unit adapted to generate a two dimensional ultrasound image of the second object based on ultrasound information from the second ultrasound unit (5; 105, 110), - a location determination unit adapted to determine the location of the first object within the second object with respect to the ultrasound image based on the ultrasound signals transmitted between the first and second ultrasound units and said ultrasound information from the second ultrasound unit.
A stereo camera device comprising: a pair of imaging units that image a front of a windshield through the windshield ; a control circuit board that is electrically connected to each of the pair of imaging units ; and a housing that accommodates the pair of imaging units and the control circuit board and is allowed to be attached to the windshield through an attachment protrusion provided at the center of a front end of the housing, wherein a recess portion for accommodating at least a portion of the attachment protrusion is provided at the center of the front end of the housing . characterized in that the control circuit board has a board recess portion provided at a position corresponding to the recess portion . a pair of imaging units that image a front of a windshield through the windshield ; a control circuit board that is electrically connected to each of the pair of imaging units ; and a housing that accommodates the pair of imaging units and the control circuit board and is allowed to be attached to the windshield through an attachment protrusion provided at the center of a front end of the housing, wherein a recess portion for accommodating at least a portion of the attachment protrusion is provided at the center of the front end of the housing . characterized in that the control circuit board has a board recess portion provided at a position corresponding to the recess portion .
Method for adjusting a timing program for a heating system and/or a timing program for a system for home automation - for example a smart home system - by predicting an arrival time and a destination on the basis of a previously covered partial route , in particular by means of a mobile computing device , comprising the steps of: ascertaining a location coordinate , wherein the location coordinate describes a current location, ascertaining a location cell of a geodetic network on the basis of the location coordinate , wherein the location cell represents the current location, and wherein the location cell is a two-dimensional element of the geodetic network in which the location coordinate is situated, • ascertaining an expected route on the basis of the location cell and of historic route data , wherein the expected route comprises a prediction of the arrival time and of the destination and the historic route data are formed by previously stored historic routes , adjusting the timing program on the basis of the expected route , in particular on the basis of the arrival time dependent on the expected route , wherein at least one cell property of the location cell is ascertained - for example a direction of movement and/or a starting cell of the partial route and/or a route direction of the partial route and/or a time, for example a current time or a starting time of the partial route - and the expected route is ascertained on the basis of the at least one cell property , and in that, when ascertaining the expected route , the historic route in which the at least one cell property of the cell of the historic route that corresponds to the location cell has the greatest possible similarity to the at least one cell property of the location cell is selected as expected route . ascertaining a location coordinate , wherein the location coordinate describes a current location, ascertaining a location cell of a geodetic network on the basis of the location coordinate , wherein the location cell represents the current location, and wherein the location cell is a two-dimensional element of the geodetic network in which the location coordinate is situated, • ascertaining an expected route on the basis of the location cell and of historic route data , wherein the expected route comprises a prediction of the arrival time and of the destination and the historic route data are formed by previously stored historic routes , adjusting the timing program on the basis of the expected route , in particular on the basis of the arrival time dependent on the expected route ,
An ablation system , comprising: an ablation probe defining a fluid path for circulation of fluid therethrough; a generator configured to supply energy to the ablation probe for treating tissue; a pump configured to pump fluid through the fluid path of the ablation probe to cool the ablation probe; characterised in that the system further comprises: a sensor configured to measure an electrical current drawn by the pump; and a computing device configured to determine a status of the ablation system based on the measured electrical current. an ablation probe defining a fluid path for circulation of fluid therethrough; a generator configured to supply energy to the ablation probe for treating tissue; a pump configured to pump fluid through the fluid path of the ablation probe to cool the ablation probe; characterised in that the system further comprises: a sensor configured to measure an electrical current drawn by the pump; and a computing device configured to determine a status of the ablation system based on the measured electrical current. a sensor configured to measure an electrical current drawn by the pump; and a computing device configured to determine a status of the ablation system based on the measured electrical current.
A storage device comprising: a data memory circuit configured to include a pair of flash memory cells to be read by a complementary read mode, where 1-bit data is stored in the pair of flash memory cells; and a status memory circuit ) configured to include flash memory cells to be read by a reference read mode, said storage device being characterized in that a status flag is stored in the flash memory cells, wherein the status memory circuit includes a plurality of flash memory cells where the status flag having the same value is stored, and the storage device further comprises a determination circuit configured to determine a value of the status flag by comparing a sum current of currents flowing through the plurality of flash memory cells with a reference current. a data memory circuit configured to include a pair of flash memory cells to be read by a complementary read mode, where 1-bit data is stored in the pair of flash memory cells; and a status memory circuit ) configured to include flash memory cells to be read by a reference read mode, said storage device being characterized in that a status flag is stored in the flash memory cells, wherein the status memory circuit includes a plurality of flash memory cells where the status flag having the same value is stored, and the storage device further comprises a determination circuit configured to determine a value of the status flag by comparing a sum current of currents flowing through the plurality of flash memory cells with a reference current.
A nonwoven fabric, which is a melt-blown nonwoven fabric, the nonwoven fabric comprising a constituent fiber containing a thermoplastic resin, the constituent fiber containing at least a first component and a second component, either one or both of the first component and the second component containing a crystal nucleating agent, the first component and the second component having a difference in crystallization start temperature of 5°C or more as measured by the method described in the specification, at least part of both the first component and the second component being exposed to a surface of the constituent fiber. either one or both of the first component and the second component containing a crystal nucleating agent, the first component and the second component having a difference in crystallization start temperature of 5°C or more as measured by the method described in the specification, at least part of both the first component and the second component being exposed to a surface of the constituent fiber.
A firing circuit for a blasting detonator , including: a charging source including first and second charging source terminals , the charging source configured to selectively provide a charging voltage signal (VBUS) including a positive voltage at the first charging source terminal relative to the second charging source terminal ; a Zener diode (D1) ; a firing capacitor (C1) including a first capacitor terminal configured to be directly connected to a first electrical terminal of an ignition element , and a second capacitor terminal directly connected to the second charging source terminal of the charging source ; and a switching device configured to be connected between a second electrical terminal of said ignition element and the second charging source terminal of the charging source , the switching device including a control terminal to receive a control signal (FIRE) to selectively connect said second electrical terminal of said ignition element to the second charging source terminal of the charging source to allow current to flow through said ignition element ; characterized in that the Zener diode (D1) includes an anode configured to be coupled with said first electrical terminal of said ignition element , and a cathode coupled with the first charging source terminal of the charging source . a charging source including first and second charging source terminals , the charging source configured to selectively provide a charging voltage signal (VBUS) including a positive voltage at the first charging source terminal relative to the second charging source terminal ; a Zener diode (D1) ; a firing capacitor (C1) including a first capacitor terminal configured to be directly connected to a first electrical terminal of an ignition element , and a second capacitor terminal directly connected to the second charging source terminal of the charging source ; and a switching device configured to be connected between a second electrical terminal of said ignition element and the second charging source terminal of the charging source , the switching device including a control terminal to receive a control signal (FIRE) to selectively connect said second electrical terminal of said ignition element to the second charging source terminal of the charging source to allow current to flow through said ignition element ; characterized in that the Zener diode (D1) includes an anode configured to be coupled with said first electrical terminal of said ignition element , and a cathode coupled with the first charging source terminal of the charging source .