mhurhangee/patent-ind-claim-en huggingface dataset:
washing machine comprising: a sensor configured to emit white light including infrared (IR) light to washing water and receive visible light of a specific wavelength and infrared light of a specific wavelength which are reflected by the washing water or transmitted through the washing water among the white light emitted to the washing water, wherein the sensor includes a light emitter configured to emit the white light including the infrared light to the washing water and a light receiver configured to simultaneously receive the visible and infrared light of the specific wavelengths among the white light emitted to the washing water; and a processor configured to determine turbidity value and color of the washing water based on intensity and patterns of the visible and infrared light of the specific wavelengths which are received from the sensor and control an operation of the washing machine based on the turbidity value and color of the washing water; characterized in that the processor is configured to determine color and concentration grade of the washing water on the basis of the intensity and pattern of the visible light of the specific wavelength which is received from the light receiver and control the washing machine to perform a dye transfer prevention operation in case that the color of the washing water has a grade equal to or higher than a predetermined concentration grade. a sensor configured to emit white light including infrared (IR) light to washing water and receive visible light of a specific wavelength and infrared light of a specific wavelength which are reflected by the washing water or transmitted through the washing water among the white light emitted to the washing water, wherein the sensor includes a light emitter configured to emit the white light including the infrared light to the washing water and a light receiver configured to simultaneously receive the visible and infrared light of the specific wavelengths among the white light emitted to the washing water; and a processor configured to determine turbidity value and color of the washing water based on intensity and patterns of the visible and infrared light of the specific wavelengths which are received from the sensor and control an operation of the washing machine based on the turbidity value and color of the washing water; characterized in that the processor is configured to determine color and concentration grade of the washing water on the basis of the intensity and pattern of the visible light of the specific wavelength which is received from the light receiver and control the washing machine to perform a dye transfer prevention operation in case that the color of the washing water has a grade equal to or higher than a predetermined concentration grade.
A multilayer coating film, comprising: a lustrous layer containing a luster material and formed directly or indirectly on a surface of a coating target; and a colored layer which is translucent, containing a warm color pigment , and layered on the lustrous layer , wherein the lustrous layer contains, in a mixed state, a high-reflection flake having a visible light reflectance of 90% or more and a low-reflection flake having a visible light reflectance that is half or smaller than the visible light reflectance of the high-reflection flake as the luster material, characterized in that when both of the high-reflection flake and the low-reflection flake are projected on a bottom of the lustrous layer , a ratio of a projected area of the flakes on the bottom of the lustrous layer is 100%, and a ratio of a total area of the high-reflection flake with respect to a total area of both of the high-reflection flake and the low-reflection flake is 25% or more and 75% or less. a lustrous layer containing a luster material and formed directly or indirectly on a surface of a coating target; and a colored layer which is translucent, containing a warm color pigment , and layered on the lustrous layer , wherein the lustrous layer contains, in a mixed state, a high-reflection flake having a visible light reflectance of 90% or more and a low-reflection flake having a visible light reflectance that is half or smaller than the visible light reflectance of the high-reflection flake as the luster material, characterized in that when both of the high-reflection flake and the low-reflection flake are projected on a bottom of the lustrous layer , a ratio of a projected area of the flakes on the bottom of the lustrous layer is 100%, and a ratio of a total area of the high-reflection flake with respect to a total area of both of the high-reflection flake and the low-reflection flake is 25% or more and 75% or less.
A kit comprising: a light housing comprising source of light ; and a container containing a photocatalyzable treatment composition comprising a photoactivator; wherein said light housing and said container are co-packaged with one another, wherein said treatment composition is a fully formulated laundry detergent or a fully formulated dish detergent. a light housing comprising source of light ; and a container containing a photocatalyzable treatment composition comprising a photoactivator; wherein said light housing and said container are co-packaged with one another, wherein said treatment composition is a fully formulated laundry detergent or a fully formulated dish detergent.
A process for preparing a catalyst material, said catalyst material comprising a support material, a first metal and one or more second metals, wherein the first metal and the second metal(s) are alloyed and wherein the first metal is a platinum group metal and the second metal(s) is selected from the group of transition metals and tin provided the second metal(s) is different to the first metal, said process comprising the steps: (i) providing a catalyst material precursor comprising the first metal supported on the support material; (ii) depositing a silicon oxide precursor and one or more second metal precursors on the catalyst material precursor; (iii) carrying out a first heat treatment step to convert the silicon oxide precursor to silicon oxide; (iv) carrying out a second heat treatment step to alloy the first metal and the second metal(s); and (v) removal of at least some of the silicon oxide to give the catalyst material. (i) providing a catalyst material precursor comprising the first metal supported on the support material; (ii) depositing a silicon oxide precursor and one or more second metal precursors on the catalyst material precursor; (iii) carrying out a first heat treatment step to convert the silicon oxide precursor to silicon oxide; (iv) carrying out a second heat treatment step to alloy the first metal and the second metal(s); and (v) removal of at least some of the silicon oxide to give the catalyst material.
A suspension system for a vehicle comprising: an air spring ; a stabilizer bar subassembly ; a knuckle carrier that has a mounting stem ; a steering knuckle that is pivotally mounted to the knuckle carrier along an axis of rotation ; an upper control arm that is pivotally mounted to the knuckle carrier along a first control arm axis ; and a platform that is fixedly disposed on the mounting stem and located above the upper control arm , wherein the platform supports the air spring and has an arm that is coupled to the stabilizer bar subassembly , wherein the stabilizer bar subassembly is disposed above the upper control arm and the knuckle carrier and includes a stabilizer bar , characterized in that the stabilizer bar subassembly further includes a drop link that extends from the arm to a first end of an intermediate link such that the drop link extends in an upward direction that extends away from the upper control arm . an air spring ; a stabilizer bar subassembly ; a knuckle carrier that has a mounting stem ; a steering knuckle that is pivotally mounted to the knuckle carrier along an axis of rotation ; an upper control arm that is pivotally mounted to the knuckle carrier along a first control arm axis ; and a platform that is fixedly disposed on the mounting stem and located above the upper control arm , wherein the platform supports the air spring and has an arm that is coupled to the stabilizer bar subassembly , wherein the stabilizer bar subassembly is disposed above the upper control arm and the knuckle carrier and includes a stabilizer bar , characterized in that the stabilizer bar subassembly further includes a drop link that extends from the arm to a first end of an intermediate link such that the drop link extends in an upward direction that extends away from the upper control arm .
A method of communicating with one or more field devices , wherein each field device is connected to a communication channel of the interface device , the method being executed by an interface device , comprises: a. receiving a first command associated with a first field device , from an industrial device ; b. communicating with the first field device over a first communication channel for executing the received first command; c. receiving one or more commands associated with the one or more field devices , wherein the one or more commands includes at least one command associated with a second field device from the one or more field devices ; d. caching the one or more commands in a memory module prior to the execution of the first command; the method being characterised in that it comprises grouping the received one or more commands into one or more groups, each group from the one or more groups comprising a set of commands associated with a corresponding field device connected on a corresponding communication channel to the interface device . a. receiving a first command associated with a first field device , from an industrial device ; b. communicating with the first field device over a first communication channel for executing the received first command; c. receiving one or more commands associated with the one or more field devices , wherein the one or more commands includes at least one command associated with a second field device from the one or more field devices ; d. caching the one or more commands in a memory module prior to the execution of the first command;
A working vehicle such as a tractor and a civil engineering wheel loader, comprising: a travelling machine body comprising an engine frame having a front bumper and a front axle case , and right and left machine body frames detachably fixed to a rear portion of the engine frame with bolts wherein an engine is provided in the travelling machine body ; a travelling unit and a working unit; a hydraulic continuously variable transmission, wherein speed of rotation power from the engine is changed and transmitted to the travelling unit and the working unit; a cockpit in the travelling machine body ; and an armrest placed lateral to the cockpit in the travelling machine body , wherein a main transmission lever for changing traveling speed by the traveling unit is arranged on a front end of the arm rest , and an elevating dial for hoisting and lowering the working unit is arranged on a side surface of the arm rest on a side of the armrest not facing the cockpit , characterized in that the elevating dial is fitted to a side surface of the arm rest such that an upper end of the elevating dial is located lower than an upper surface of the arm rest , a side notch for operating a dial is provided in the side surface of the arm rest above an installation region of the elevating dial , an operating projection is provided above the elevating dial , and front and rear step portions of the side notch are brought into abutment against the operating projection, thereby configuring the step portions as a rotation-restricting portion which restricts rotation of the elevating dial . a travelling machine body comprising an engine frame having a front bumper and a front axle case , and right and left machine body frames detachably fixed to a rear portion of the engine frame with bolts wherein an engine is provided in the travelling machine body ; a travelling unit and a working unit; a hydraulic continuously variable transmission, wherein speed of rotation power from the engine is changed and transmitted to the travelling unit and the working unit; a cockpit in the travelling machine body ; and an armrest placed lateral to the cockpit in the travelling machine body , wherein a main transmission lever for changing traveling speed by the traveling unit is arranged on a front end of the arm rest , and an elevating dial for hoisting and lowering the working unit is arranged on a side surface of the arm rest on a side of the armrest not facing the cockpit , characterized in that the elevating dial is fitted to a side surface of the arm rest such that an upper end of the elevating dial is located lower than an upper surface of the arm rest , a side notch for operating a dial is provided in the side surface of the arm rest above an installation region of the elevating dial , an operating projection is provided above the elevating dial , and front and rear step portions of the side notch are brought into abutment against the operating projection, thereby configuring the step portions as a rotation-restricting portion which restricts rotation of the elevating dial .
A device for frothing a liquid foodstuff, preferably a milk-based liquid, with an agitator located inside a foodstuff delivery container , which is driven by a motor located above the foodstuff delivery container , wherein the device comprises - a microwave chamber, in which the foodstuff delivery container is located, - in each case an air inlet valve and a milk inlet valve , - in each case a milk and milk froth pump device, - a milk foam outlet and - a microwave generator located beneath or next to the foodstuff delivery container. - a microwave chamber, in which the foodstuff delivery container is located, - in each case an air inlet valve and a milk inlet valve , - in each case a milk and milk froth pump device, - a milk foam outlet and - a microwave generator located beneath or next to the foodstuff delivery container.
A drawer set comprising the following three different second furniture parts : - a first drawer wall including a first fastening device for fixing a front panel , and at least one second fastening device for fixing the front panel , - a second drawer wall having a lower height than the first drawer wall , the second drawer wall including a first fastening device for fixing a front panel , and including a drawer railing configured to be fixed to the front panel , the drawer railing being arranged above the second drawer wall in a mounted condition and including a second fastening device for fixing the front panel , - a third drawer wall having a lower height than the first drawer wall , wherein a wall element is set onto the third drawer wall , the third drawer wall including a first fastening device for fixing a front panel , and wherein the wall element includes a second fastening device for fixing to the front panel , and with a connecting pin , the connecting pin being configured to be fixed to the front panel and including at least one holding portion , wherein the same holding portion of the connecting pin can be alternatively connected to the second fastening device of at least two of the three different second furniture parts . - a first drawer wall including a first fastening device for fixing a front panel , and at least one second fastening device for fixing the front panel , - a second drawer wall having a lower height than the first drawer wall , the second drawer wall including a first fastening device for fixing a front panel , and including a drawer railing configured to be fixed to the front panel , the drawer railing being arranged above the second drawer wall in a mounted condition and including a second fastening device for fixing the front panel , - a third drawer wall having a lower height than the first drawer wall , wherein a wall element is set onto the third drawer wall , the third drawer wall including a first fastening device for fixing a front panel , and wherein the wall element includes a second fastening device for fixing to the front panel , and with a connecting pin , the connecting pin being configured to be fixed to the front panel and including at least one holding portion , wherein the same holding portion of the connecting pin can be alternatively connected to the second fastening device of at least two of the three different second furniture parts .
A long trough for mounting under a partitioning between two sties , the long trough including a plurality of elongated trough elements adapted to be juxtaposed along a longitudinal direction, the long trough at each opposite end comprises an end wall arranged on an outermost trough element , each trough element further comprises at least one transverse wall arranged in an interposed position inside the long trough between the end walls , wherein the at least one transverse wall is extending transversely of the trough elements , characterised in that a transverse wall (10, 10', 10'', 10′′′, 10ʺʺ, 10ʺ′′′) is cast together with the sides of a trough element as a single piece made of polymeric concrete, wherein the transverse wall (10, 10', 10'', 10′′′, 10ʺʺ, 10′′′ʺ) has an open-ended slot at a top side of the transverse wall (10, 10', 10", 10′′′, 10ʺʺ, 10ʺ′′′) for receiving a portion of the partitioning , the transverse wall (10, 10', 10'', 10′′′, 10ʺʺ, 10ʺ′′′) further has a height extending above upper edges of the sides of the trough element , and where a bottom side of the transverse wall (10, 10', 10'', 10′′′, 10ʺʺ, 10′′′ʺ) is spaced apart from a bottom of the trough element thereby establishing an underrun.
A composition comprising a PDE10A inhibitor for use in the prevention, management and/or treatment of inflammatory bowel diseases.
A data reception method for receiving data in units of packets at a receiver, said method comprising the following steps performed by the receiver of: receiving an uncompressed packet including uncompressed transmission data, and subsequently receiving compressed packets each including compressed data which is obtained by compressing at least a portion of transmission data, wherein the transmission data of the compressed packet includes a plurality of compression target data to be decompressed, and restoring the plurality of compression target data of a compressed packet, wherein the plurality of compression target data includes a packet identification of an Internet Protocol, IP, packet and a sequence number of a Real Time Transport Protocol, RTP, packet, and characterized in that the step of restoring the plurality of compression target data comprises restoring the packet identification of the IP packet using a difference-specifying additional information for calculating difference data between the whole or a part of transmission data of an uncompressed packet and the whole or a part of transmission data of a compressed packet, wherein the difference-specifying additional information is included in the compressed packet to be restored and is also used for restoring the sequence number of the RTP packet. receiving an uncompressed packet including uncompressed transmission data, and subsequently receiving compressed packets each including compressed data which is obtained by compressing at least a portion of transmission data, wherein the transmission data of the compressed packet includes a plurality of compression target data to be decompressed, and restoring the plurality of compression target data of a compressed packet, wherein the plurality of compression target data includes a packet identification of an Internet Protocol, IP, packet and a sequence number of a Real Time Transport Protocol, RTP, packet, and characterized in that the step of restoring the plurality of compression target data comprises restoring the packet identification of the IP packet using a difference-specifying additional information for calculating difference data between the whole or a part of transmission data of an uncompressed packet and the whole or a part of transmission data of a compressed packet, wherein the difference-specifying additional information is included in the compressed packet to be restored and is also used for restoring the sequence number of the RTP packet.
A computer implemented method for computing simultaneous rectilinear paths using medical images, the method comprising performing, by a processor of a computer system, the following steps: - receiving a 3D medical image comprising voxels representing a volume of an anatomical region of a patient, and a preliminary path determined by two points, a first point (P1) and a second point (P2), traversing said 3D medical image , said 3D medical image having segmented therein at least one area of interest , and said preliminary path comprising a security zone with a given distance; - providing a new 3D image by computing a distance map of said area of interest , said new 3D image having a same dimensions of said 3D medical image and comprising voxels, each voxel indicating a distance value to the area of interest ; - mapping the voxels having a distance value greater than a distance threshold to a first value and mapping the voxels having a distance value equal or smaller than the distance threshold to a second value, the distance threshold being equal to said given distance of the security zone ; - selecting the voxels having said second value; and - obtaining a 2D projected image that includes a plurality of rectilinear paths by projecting the selected voxels using a frustum that projects the preliminary path onto a single point, wherein said 2D projected image comprises pixels each having one of said first or second values, where the pixels having the second value indicate that the rectilinear path traverses the 3D medical image at a distance less than or equal to the distance threshold from the area of interest and the pixels having the first value indicate that the rectilinear path traverses the 3D medical image at a distance greater than the distance threshold from the area of interest . - receiving a 3D medical image comprising voxels representing a volume of an anatomical region of a patient, and a preliminary path determined by two points, a first point (P1) and a second point (P2), traversing said 3D medical image , said 3D medical image having segmented therein at least one area of interest , and said preliminary path comprising a security zone with a given distance; - providing a new 3D image by computing a distance map of said area of interest , said new 3D image having a same dimensions of said 3D medical image and comprising voxels, each voxel indicating a distance value to the area of interest ; - mapping the voxels having a distance value greater than a distance threshold to a first value and mapping the voxels having a distance value equal or smaller than the distance threshold to a second value, the distance threshold being equal to said given distance of the security zone ; - selecting the voxels having said second value; and - obtaining a 2D projected image that includes a plurality of rectilinear paths by projecting the selected voxels using a frustum that projects the preliminary path onto a single point,