mhurhangee/patent-ind-claim-en huggingface dataset:
A crawler vehicle, in particular for preparing ski runs; the crawler vehicle comprising: - a frame extending along a first longitudinal axis (A1) - a first and a second motorized track ; - at least one speed sensor (5; 6) to detect a speed difference between the first track and the second track ; - a working tool , which extends transversely and symmetrically with respect to a second longitudinal axis (A2) and is hinged at the rear of the frame about a yaw axis (A3) ; - an actuation system , which is configured to act between the working tool and the frame ; and - a control device , which is in communication with the at least one speed sensor (5; 6) characterised in that 1 the control device comprises a memory configured to store a reference interval for a steering radius of the crawler vehicle ; the control device being configured to calculate a value for a steering radius of the crawler vehicle and to control the actuation system so as to selectively perform at least one of the following actions: - allowing the free oscillation of the working tool about the yaw axis (A3) when the calculated value of the steering radius is comprised within the reference interval; - keeping the position of the working tool blocked with respect to the frame when the calculated value of the steering radius is outside the reference interval, preferably so that the second longitudinal axis (A2) of the working tool is aligned with the first longitudinal axis (A1) of the frame . - a frame extending along a first longitudinal axis (A1) - a first and a second motorized track ; - at least one speed sensor (5; 6) to detect a speed difference between the first track and the second track ; - a working tool , which extends transversely and symmetrically with respect to a second longitudinal axis (A2) and is hinged at the rear of the frame about a yaw axis (A3) ; - an actuation system , which is configured to act between the working tool and the frame ; and - a control device , which is in communication with the at least one speed sensor (5; 6) - allowing the free oscillation of the working tool about the yaw axis (A3) when the calculated value of the steering radius is comprised within the reference interval; - keeping the position of the working tool blocked with respect to the frame when the calculated value of the steering radius is outside the reference interval, preferably so that the second longitudinal axis (A2) of the working tool is aligned with the first longitudinal axis (A1) of the frame .
A poppet valve arrangement comprising: a poppet valve comprising a biasing device ; and a housing comprising an inlet, an outlet and a flow channel configured to provide fluid communication between said inlet and said outlet when said poppet valve is open; wherein: said fluid communication provided by said flow channel is blocked by the poppet valve under action of said biasing device when the poppet valve is closed; and the poppet valve is supported with respect to the housing by a channel splitter that radially sections the flow channel into a sectioned substantially annular flow channel portion around the poppet valve ; wherein, when said poppet valve is open, said channel splitter provides said sectioned substantially annular flow channel portion along all of the biasing device's axial extent; and said channel splitter is provided along the length of the poppet valve such that, the flow channel has a substantially constant hydraulic diameter from the inlet to the outlet of the housing. a poppet valve comprising a biasing device ; and a housing comprising an inlet, an outlet and a flow channel configured to provide fluid communication between said inlet and said outlet when said poppet valve is open; wherein: said fluid communication provided by said flow channel is blocked by the poppet valve under action of said biasing device when the poppet valve is closed; and the poppet valve is supported with respect to the housing by a channel splitter that radially sections the flow channel into a sectioned substantially annular flow channel portion around the poppet valve ; said fluid communication provided by said flow channel is blocked by the poppet valve under action of said biasing device when the poppet valve is closed; and the poppet valve is supported with respect to the housing by a channel splitter that radially sections the flow channel into a sectioned substantially annular flow channel portion around the poppet valve ; wherein, when said poppet valve is open, said channel splitter provides said sectioned substantially annular flow channel portion along all of the biasing device's axial extent; and said channel splitter is provided along the length of the poppet valve such that, the flow channel has a substantially constant hydraulic diameter from the inlet to the outlet of the housing.
A peroxide-curable polyethylene blend composition comprising a blend of constituents (A) and (B) that contains constituents (C) and (D): (A) a crosslinkable low density polyethylene characterized by a melt index (190° C., 2.16 kilograms (kg), ASTM D1238-04, "melt index (I 2 )") of 1.50 to 2.49 grams per 10 minutes (g/10 min.) ("crosslinkable LDPE (A)" or "constituent (A)" or "(A)"); (B) a crosslinkable low density polyethylene characterized by an enhanced melt index (I 2 ) of 5.0 to 25 g/10 min. ("crosslinkable LDPE (B)" or "constituent (B)" or "(B)"); (C) an organic peroxide; wherein the (C) organic peroxide is a compound of formula R O -O-O-R O , wherein each R O independently is a (C 1 -C 20 )alkyl group or (C 6 -C 20 )aryl group; and (D) a propenyl-functional coagent; wherein (D) is 2,4-diphenyl-4-methyl-1-pentene or 1,3-diisopropenylbenzene; wherein concentrations thereof are: (A) is at least 55.0 weight percent (wt%), (B) is 5.0 to 40.0 wt%, (C) is 0.1 to 3.0 wt%, and (D) is 0.10 to 1.0 wt%, all based on total weight of the peroxide-curable polyethylene blend composition.
A method comprising: generating a first group of precoded sparse code multiple access, SCMA, blocks by SCMA encoding a respective set of input bits to produce a respective SCMA codeword and multiplying the respective SCMA codeword by an IDFT matrix; concatenating the first group of precoded SCMA blocks to produce a first concatenated output; discrete Fourier Transform, DFT, precoding the first concatenated output to produce a first precoded output; and performing OFDM modulation based on the first precoded output, characterized in that the SCMA encoding comprises using an SCMA codebook in which each codeword has one non-zero element. generating a first group of precoded sparse code multiple access, SCMA, blocks by SCMA encoding a respective set of input bits to produce a respective SCMA codeword and multiplying the respective SCMA codeword by an IDFT matrix; concatenating the first group of precoded SCMA blocks to produce a first concatenated output; discrete Fourier Transform, DFT, precoding the first concatenated output to produce a first precoded output; and performing OFDM modulation based on the first precoded output, characterized in that the SCMA encoding comprises using an SCMA codebook in which each codeword has one non-zero element.
A human body model comprising a compound resin comprising a hydrogenated block copolymer (X) that is a hydrogenated product of a block copolymer (X') having a polymer block (A) mainly composed of a structural unit derived from an aromatic vinyl compound and a polymer block (B) mainly composed of a structural unit derived from a conjugated diene compound, at least one terminal of which is formed of the polymer block (A), and an oil (Y) having a kinematic viscosity at 40°C of 25 mm 2 /s or less, and as measured by the method in accordance with JIS K 8803: 2011, the content of the oil (Y) relative to 100 parts by mass of the hydrogenated block copolymer (X) being from 450 to 1,500 parts by mass.
A counter device for counting infusion liquid drips, the device comprising a frame (F) which has a nest (N) for a separate infusion liquid chamber, and a latch (H,HA) which is arranged to close or otherwise confine the nest (N) to keep the infusion liquid chamber in the nest (N), and the device frame (F) further comprising a positioning groove as a positioning structure (GR) for supporting the infusion liquid chamber, and the device also comprising a measuring structure (TX, RX, MCU) to detect the drips, wherein, for a different type of infusion liquid chamber, the frame of the infusion device comprises a second positioning structure (PS2, PS22) which is arranged to prevent the rising movement of the infusion liquid chamber to the placed in the nest, in the vertical direction of the frame (F), and said second positioning structure (PS2, PS22) arranged to prevent the rising movement of the infusion liquid chamber in the vertical direction of the frame (F) is at a distance from the positioning structure (GR) of the positioning groove type, being located at a different height in relation to the vertical direction of the frame (F) than the positioning structure (GR) of the positioning groove type.
Removable reception device for forming a mixing machine when said reception device is inserted in a manufacturing apparatus , the reception device comprising - a first reception location , configured to receive a first capsule containing a first formulation, - a second reception location , configured to receive a second capsule containing a second formulation, the two capsules being able to be fluidically connected, - a first actuating face (8.1), - a second actuating face (9.1), opposite the first actuating face (8.1), - a heating element configured to heat at least one of the first and second capsules when the reception device equipped with the first and second capsules is received in the mixing machine , - a first electrical contact track (23.1) for electrically supplying the heating element , located on a first connection face of the reception device , - a second contact track (24.1) for electrically supplying the heating element , situated on a second connection face of the reception device , separate from the first connection face . - a first reception location , configured to receive a first capsule containing a first formulation, - a second reception location , configured to receive a second capsule containing a second formulation, the two capsules being able to be fluidically connected, - a first actuating face (8.1), - a second actuating face (9.1), opposite the first actuating face (8.1), - a heating element configured to heat at least one of the first and second capsules when the reception device equipped with the first and second capsules is received in the mixing machine , - a first electrical contact track (23.1) for electrically supplying the heating element , located on a first connection face of the reception device , - a second contact track (24.1) for electrically supplying the heating element , situated on a second connection face of the reception device , separate from the first connection face .
A protective mask comprising an ultrafine fibrous coating on a first microfibrous substrate, said ultrafine fibrous coating comprising: electrospun partially gelled submicron fibers having an average diameter of 300 - 999 nm, interweaved with electrospun nanofibers having an average diameter of 10 - 99 nm; and a biocide which is encapsulated into, surface-attached onto, blended with, physically trapped, and/or chemically linked to said submicron fibers and nanofibers. electrospun partially gelled submicron fibers having an average diameter of 300 - 999 nm, interweaved with electrospun nanofibers having an average diameter of 10 - 99 nm; and a biocide which is encapsulated into, surface-attached onto, blended with, physically trapped, and/or chemically linked to said submicron fibers and nanofibers.
An image processing method of generating print data to cause a printing apparatus that prints a print image based on image data to execute printing, by repeating a pass operation in which a nozzle set forms dots on a printing medium by ejecting ink droplets while moving relative to the printing medium in a main scanning direction, and a feed operation in which the nozzle set and the printing medium are moved relative to each other in a sub-scanning direction that intersects with the main scanning direction, the method comprising: performing a plurality of halftone processes for a same region of image data, the halftone processes being to generate halftone data to determine a formation state of dots formed by the nozzle set that ejects a same color of ink; and allocating the generated halftone data to pass operations, characterised in that the nozzle set includes a plurality of nozzle groups , and the halftone processes include halftone processes corresponding to the plurality of nozzle groups, respectively. performing a plurality of halftone processes for a same region of image data, the halftone processes being to generate halftone data to determine a formation state of dots formed by the nozzle set that ejects a same color of ink; and allocating the generated halftone data to pass operations, characterised in that the nozzle set includes a plurality of nozzle groups , and the halftone processes include halftone processes corresponding to the plurality of nozzle groups, respectively.
A method for making an armored cable, comprising: applying an adhesive material to a strip stock ; forming the strip stock with the adhesive material into an armor tubing ; welding a seam of the armor tubing in a welding zone ; inserting at least one of a first optical fiber or a first wire into a first end of a first guide tube ; and, supporting a second end of the first guide tube within the armor tubing with a plurality of support legs such that the first guide tube does not contact the armor tubing , wherein a middle portion of a support wire is attached to the first guide tube , and wherein at least one end portion of the support wire is one of the plurality of support legs , wherein: the first guide tube extends through the welding zone ; the first guide tube protects the at least one of the first optical fiber or the first wire during the welding of the seam; the at least one of the first optical fiber or the first wire contacts the adhesive material after the at least one of the first optical fiber or the first wire exits the second end of the first guide tube ; and the first guide tube is not part of the armored cable after the making of the armored cable. applying an adhesive material to a strip stock ; forming the strip stock with the adhesive material into an armor tubing ; welding a seam of the armor tubing in a welding zone ; inserting at least one of a first optical fiber or a first wire into a first end of a first guide tube ; and, supporting a second end of the first guide tube within the armor tubing with a plurality of support legs such that the first guide tube does not contact the armor tubing , wherein a middle portion of a support wire is attached to the first guide tube , and wherein at least one end portion of the support wire is one of the plurality of support legs , wherein: the first guide tube extends through the welding zone ; the first guide tube protects the at least one of the first optical fiber or the first wire during the welding of the seam; the at least one of the first optical fiber or the first wire contacts the adhesive material after the at least one of the first optical fiber or the first wire exits the second end of the first guide tube ; and the first guide tube is not part of the armored cable after the making of the armored cable. the first guide tube extends through the welding zone ; the first guide tube protects the at least one of the first optical fiber or the first wire during the welding of the seam; the at least one of the first optical fiber or the first wire contacts the adhesive material after the at least one of the first optical fiber or the first wire exits the second end of the first guide tube ; and the first guide tube is not part of the armored cable after the making of the armored cable.
A first support element for a screw clamp comprising - a first element with two free ends , - a retainer element arranged at one of said two free ends of the first element , and - a substantially annular receiving element which is rotatably arranged on said retainer element and which is able to receive a fixing means , wherein - a longitudinal axis (L3) of said first element and a longitudinal axis (L5) of said receiving element intersect at a point of intersection (S), the position of which is independent of a rotational position of the receiving element , and - said receiving element is rotatable around a rotational axis which is perpendicular to said longitudinal axis (L3) of the first element and said longitudinal axis (L5) of the receiving element , characterized in that - said first element has a substantially circular cross-section, - said retainer element has at least two legs which are substantially L-shaped arranged to each other, and - said receiving element is arranged rotatable around at least the rotational axis on one side on an inner wall of one of the two legs , and the other leg is connected on an end surface of one of said two free ends of said first element with an outer wall . - a first element with two free ends , - a retainer element arranged at one of said two free ends of the first element , and - a substantially annular receiving element which is rotatably arranged on said retainer element and which is able to receive a fixing means , wherein - a longitudinal axis (L3) of said first element and a longitudinal axis (L5) of said receiving element intersect at a point of intersection (S), the position of which is independent of a rotational position of the receiving element , and - said receiving element is rotatable around a rotational axis which is perpendicular to said longitudinal axis (L3) of the first element and said longitudinal axis (L5) of the receiving element , characterized in that - said first element has a substantially circular cross-section, - said retainer element has at least two legs which are substantially L-shaped arranged to each other, and - said receiving element is arranged rotatable around at least the rotational axis on one side on an inner wall of one of the two legs , and the other leg is connected on an end surface of one of said two free ends of said first element with an outer wall .
An electronic device for speckle imaging comprising: a body ; a head being extended from the body , the head including an internal space for accommodating: a light transmission circle (IC) being formed on the head ; and a measurement module being installed in the internal space of the head , the measurement module facing the light transmission circle (IC), wherein the measurement module includes: a plurality of first light sources providing the light transmission circle (IC) with light for speckle imaging; an image sensor being positioned between the light transmission circle (IC) and the plurality of first light sources , the image sensor being spaced apart from the plurality of first light sources , the image sensor facing the light transmission circle (IC); and a lens covering the image sensor , the lens being positioned between the image sensor and the light transmission circle (IC), wherein the plurality of first light sources comprises three first light sources , two of which are disposed at two corners of the internal space, the three first light sources being disposed around the image sensor in a triangular shape, such that each first light source corresponds to a vertex of the triangle. a body ; a head being extended from the body , the head including an internal space for accommodating: a light transmission circle (IC) being formed on the head ; and a measurement module being installed in the internal space of the head , the measurement module facing the light transmission circle (IC), a light transmission circle (IC) being formed on the head ; and a measurement module being installed in the internal space of the head , the measurement module facing the light transmission circle (IC), wherein the measurement module includes: a plurality of first light sources providing the light transmission circle (IC) with light for speckle imaging; an image sensor being positioned between the light transmission circle (IC) and the plurality of first light sources , the image sensor being spaced apart from the plurality of first light sources , the image sensor facing the light transmission circle (IC); and a lens covering the image sensor , the lens being positioned between the image sensor and the light transmission circle (IC), a plurality of first light sources providing the light transmission circle (IC) with light for speckle imaging; an image sensor being positioned between the light transmission circle (IC) and the plurality of first light sources , the image sensor being spaced apart from the plurality of first light sources , the image sensor facing the light transmission circle (IC); and a lens covering the image sensor , the lens being positioned between the image sensor and the light transmission circle (IC), wherein the plurality of first light sources comprises three first light sources , two of which are disposed at two corners of the internal space, the three first light sources being disposed around the image sensor in a triangular shape, such that each first light source corresponds to a vertex of the triangle.
A display system comprising: a flexible display apparatus which is deformable; and a flexible remote controller which is deformable; the flexible remote controller is configured to, in response to the flexible remote controller being deformed, transmit information indicating the deformation of the flexible remote controller to the flexible display apparatus , characterised in that the flexible display apparatus is configured to, in response to receiving the information from the flexible remote controller , be deformed to a shape corresponding to the deformation of the flexible remote controller based on the information. a flexible display apparatus which is deformable; and a flexible remote controller which is deformable; the flexible remote controller is configured to, in response to the flexible remote controller being deformed, transmit information indicating the deformation of the flexible remote controller to the flexible display apparatus , characterised in that the flexible display apparatus is configured to, in response to receiving the information from the flexible remote controller , be deformed to a shape corresponding to the deformation of the flexible remote controller based on the information.