mhurhangee/patent-ind-claim-en huggingface dataset:
Storage table of a packaging plant comprising, - at least two infeeds (6b', 6b") which are controlled to feed packages from respective different packaging devices to the storage table , - at least two ejectors (6a', 6a") which are controlled to remove packages from the storage table and to feed them to a downstream packaging device, - a plurality of storage lines which can be loaded separately from one another and are arranged between the infeeds (6b', 6b") and the outfeeds (6a', 6a"), characterized in that - the infeeds (6b', 6b") are controlled in such a way as to feed the respective package to one of the storage lines as a function of a degree of completion of the package, and, - the ejectors (6a', 6a") are controlled in such a way as to remove the respective package from the respective storage lines as a function of the degree of completion of the package. - at least two infeeds (6b', 6b") which are controlled to feed packages from respective different packaging devices to the storage table , - at least two ejectors (6a', 6a") which are controlled to remove packages from the storage table and to feed them to a downstream packaging device, - a plurality of storage lines which can be loaded separately from one another and are arranged between the infeeds (6b', 6b") and the outfeeds (6a', 6a"), characterized in that - the infeeds (6b', 6b") are controlled in such a way as to feed the respective package to one of the storage lines as a function of a degree of completion of the package, and, - the ejectors (6a', 6a") are controlled in such a way as to remove the respective package from the respective storage lines as a function of the degree of completion of the package.
A reconstitutable teverelix-TFA composition having a molar ratio of teverelix (Ac-D-Nal-D-pClPhe-D-Pal-Ser-Tyr-D-Hci-Leu-Lys(iPr)-Pro-D-Ala-NH 2 ) to trifluoroacetate below the molar ratio required for microcrystal formation, and wherein the composition comprises between 1 mol trifluoroacetate and 1.85 mol trifluoroacetate per mol teverelix, and wherein the reconstitutable composition is a powder, and wherein water is present in the reconstitutable teverelix-TFA composition in an amount between 0.3% and 5% by weight based on the total weight of the reconstitutable teverelix-TFA composition.
A metal mask material, the metal mask material is characterised by including, by mass%, C: 0.01% or less, Si: 0.5% or less, Mn: 1.0% or less, and Ni: 30 to 50%, with the balance being made up of Fe and inevitable impurities, wherein for the metal mask material, both a surface roughness in a rolling direction and a surface roughness in a direction perpendicular to the rolling direction are 0.05 μm≤Ra≤0.25 μm and Rz≤1.5 μm, wherein the metal mask material has a skewness Rsk of 0 or more in a direction perpendicular to the rolling direction, and wherein, when a sample with a length of 150 mm and a width of 30 mm is cut out from the metal mask material and 60% of the plate thickness of the sample is removed by etching the sample from one side, an amount of warpage is 15 mm or less, and the plate thickness is 0.10 mm or more and 0.5 mm or less. wherein for the metal mask material, both a surface roughness in a rolling direction and a surface roughness in a direction perpendicular to the rolling direction are 0.05 μm≤Ra≤0.25 μm and Rz≤1.5 μm, wherein the metal mask material has a skewness Rsk of 0 or more in a direction perpendicular to the rolling direction, and wherein, when a sample with a length of 150 mm and a width of 30 mm is cut out from the metal mask material and 60% of the plate thickness of the sample is removed by etching the sample from one side, an amount of warpage is 15 mm or less, and the plate thickness is 0.10 mm or more and 0.5 mm or less.
A data retransmission method, comprising: transmitting , by a first device , data to a second device by using a first carrier, wherein the first carrier is an unlicensed carrier; retransmitting, at least once , by the first device , the data to the second device by using a second carrier, wherein the first carrier and the second carrier are different carriers; and sending , by the first device , control signaling to the second device , characterized by , the control signaling comprises a modulation and coding scheme, MCS, field, the MCS field is used to indicate whether the data is retransmitted data belonging to the first carrier or retransmitted data belonging to the second carrier and when a value of the MCS field is any value in [0, 31-N], it represents that the data is retransmitted data belonging to the first carrier, or when a value of the MCS field is any value in (31-N, 31], it represents that the data is retransmitted data belonging to the second carrier, wherein N is a quantity of preset modulation schemes and is a positive integer less than or equal to 31. transmitting , by a first device , data to a second device by using a first carrier, wherein the first carrier is an unlicensed carrier; retransmitting, at least once , by the first device , the data to the second device by using a second carrier, wherein the first carrier and the second carrier are different carriers; and sending , by the first device , control signaling to the second device , characterized by , the control signaling comprises a modulation and coding scheme, MCS, field, the MCS field is used to indicate whether the data is retransmitted data belonging to the first carrier or retransmitted data belonging to the second carrier and when a value of the MCS field is any value in [0, 31-N], it represents that the data is retransmitted data belonging to the first carrier, or when a value of the MCS field is any value in (31-N, 31], it represents that the data is retransmitted data belonging to the second carrier, wherein N is a quantity of preset modulation schemes and is a positive integer less than or equal to 31.
A method for dynamic path securing in a multi-track track system (GA) having a first (GS1) and a second track segment (GS1, GS2) and a first (W1) and a second point (W2), each incorporating a root direction (SR) and being adjustable in at least one shunt direction (ZR) to form a travel path, wherein the first track segment (GS1) comprises a first rail switch (AZ1) and a second rail switch (AZ2) able to be integrated into a first axle counting circuit (AZK1) and between which the first point (W1) is provided, and wherein the second track segment (GS2) comprises a third rail switch (AZ3) and a fourth rail switch (AZ4) able to be integrated into a second axle counting circuit (AZK2) and between which the second point (W2) is provided, characterized in that a system control of the track system (GA) integrates the first and second rail switch (AZ1, AZ2) of the first track segment (GS1) and the third and fourth rail switch (AZ3, AZ4) of the second track segment (GS2) into a third axle counting circuit (AZK3) upon - the first and/or second point (W1, W2) being in the shunt direction (ZR) position, and - a rail switch (AZ1-AZ4) of the first or second track segment (GS1, GS2) detecting a rail vehicle entering into the travel path. - the first and/or second point (W1, W2) being in the shunt direction (ZR) position, and - a rail switch (AZ1-AZ4) of the first or second track segment (GS1, GS2) detecting a rail vehicle entering into the travel path.
An autonomous floor-traversing robot , comprising: a chassis comprising a chassis housing, the chassis defining an interior compartment disposed beneath a chassis ceiling ; a cover extending across an area of the chassis ceiling; and characterized by : a liquid-tight button plate coupled to an inner surface of the cover that is aligned with an opening of the chassis ceiling exposing a mechanical button . a chassis comprising a chassis housing, the chassis defining an interior compartment disposed beneath a chassis ceiling ; a cover extending across an area of the chassis ceiling; and characterized by : a liquid-tight button plate coupled to an inner surface of the cover that is aligned with an opening of the chassis ceiling exposing a mechanical button .
A disposable, sealed multi-compartment container for enclosing at least one substance , the container comprising: - An upper compartment , sealed with a removable seal ; - A lower compartment , sealed with a removable seal ; - A doughnut shaped middle element ; and - A stirring rod ; Characterized in that - said upper and lower compartments comprise a tapered body, an upper edge with openings and a lower lip ; - said removable seals comprise an upper surface, a lower surface, and a peel-off lip , wherein said lower surface seals said openings ; - said middle part element has the shape of said compartments , is larger in perimeter than said lower lips and can be used to latch onto a bowl or head; - said stirring rod is placed diagonally in each compartment, wherein said substance consists of tobacco, burnable or smokable material. - An upper compartment , sealed with a removable seal ; - A lower compartment , sealed with a removable seal ; - A doughnut shaped middle element ; and - A stirring rod ; - said upper and lower compartments comprise a tapered body, an upper edge with openings and a lower lip ; - said removable seals comprise an upper surface, a lower surface, and a peel-off lip , wherein said lower surface seals said openings ; - said middle part element has the shape of said compartments , is larger in perimeter than said lower lips and can be used to latch onto a bowl or head; - said stirring rod is placed diagonally in each compartment,
A prosthesis comprising: a graft material comprising an inner surface and an outer surface ; a plurality of needle-created openings extending through the graft material between the inner surface and the outer surface , each opening being surrounded by a fused region of the graft material ; characterised by a bioactive material within the openings on the outer surface of the graft material . a graft material comprising an inner surface and an outer surface ; a plurality of needle-created openings extending through the graft material between the inner surface and the outer surface , each opening being surrounded by a fused region of the graft material ; characterised by a bioactive material within the openings on the outer surface of the graft material .
Headrest device comprising a headrest and a back support associated with a harness for maintaining said back support on the back of a user wearing said device, wherein the said headrest is mounted elastically tilting on the back support following movements in extension of the head of the wearer, characterised in that it further comprises means of elastic extension by which the headrest is mounted elastically sliding in longitudinal translation along the back support and is axially driven to a nominal resting position against movements of the head of the wearer tending to sink it into the back support.
A method for use in centralized shared scenario-specific operational control management for a plurality of autonomous vehicles , the method comprising: performing centralized shared scenario-specific operational control management for a plurality of autonomous vehicles by a centralized, with respect to the plurality of autonomous vehicles, shared scenario-specific operational control management device , wherein centralized shared scenario-specific operational control management for a plurality of vehicles includes: receiving shared scenario-specific operational control management input data, from an autonomous vehicle of the plurality of vehicles ; validating the shared scenario-specific operational control management input data received, such a validating step including the step of determining whether the shared scenario-specific operational control management input data include malicious data; identifying a current distinct vehicle operational scenario based on the shared scenario-specific operational control management input data; generating shared scenario-specific operational control management output data based on the current distinct vehicle operational scenario; and transmitting the shared scenario-specific operational control management output data to one or more autonomous vehicles of the plurality of autonomous vehicles. receiving shared scenario-specific operational control management input data, from an autonomous vehicle of the plurality of vehicles ; validating the shared scenario-specific operational control management input data received, such a validating step including the step of determining whether the shared scenario-specific operational control management input data include malicious data; identifying a current distinct vehicle operational scenario based on the shared scenario-specific operational control management input data; generating shared scenario-specific operational control management output data based on the current distinct vehicle operational scenario; and transmitting the shared scenario-specific operational control management output data to one or more autonomous vehicles of the plurality of autonomous vehicles.
Device for increasing the heat yield of a heat source , comprising - a heat sink and a heat pump with a condenser and with an evaporator ; - a heat exchanger which is thermally connectable to the heat source via a heat-source feed line and a heat-source return line , wherein - the heat sink has a heat-sink feed line and a heat-sink return line , and the heat sink is connected and thermally coupled to the heat exchanger via the heat-sink feed line and the heat-sink return line , and - the evaporator of the heat pump , for heat absorption, upstream of the heat exchanger , is thermally coupled to the heat-sink return line , characterized in that the device has a bypass line , wherein the bypass line branches off a part of the heat-sink return line upstream of the evaporator , is thermally coupled to the condenser of the heat pump and, downstream of the condenser , is brought together with the heat-sink feed line . - a heat sink and a heat pump with a condenser and with an evaporator ; - a heat exchanger which is thermally connectable to the heat source via a heat-source feed line and a heat-source return line , wherein - the heat sink has a heat-sink feed line and a heat-sink return line , and the heat sink is connected and thermally coupled to the heat exchanger via the heat-sink feed line and the heat-sink return line , and - the evaporator of the heat pump , for heat absorption, upstream of the heat exchanger , is thermally coupled to the heat-sink return line , the device has a bypass line , wherein the bypass line branches off a part of the heat-sink return line upstream of the evaporator , is thermally coupled to the condenser of the heat pump and, downstream of the condenser , is brought together with the heat-sink feed line .
Machine for producing spacers for concrete reinforcements and/or concrete structures, the spacers comprising two parallel straight longitudinal wires , in which the bottom longitudinal wire is connected to the top longitudinal wire by means of a frame structure , the machine furthermore comprising: a. a welding installation for welding together the frame structure to the top longitudinal wire, and welding together the frame structure to the bottom longitudinal wire, and; b. a drive mechanism for transporting the spacers through the welding installation, the drive mechanism comprising a system which securely clamps the spacer for transportation, preferably by means of a mechanical gripping system such as a clamp; wherein the drive mechanism is configured to continuously securely clamp the spacer characterized in that the drive mechanism comprises at least two gripping systems, both of which perform a virtually identical repetitive movement comprising a succession of translational linear movements and pauses, the translational linear movement displacing the spacer, in which the repetitive movement of the first gripping system exhibits a phase shift with respect to the repetitive movement of the second gripping system. a. a welding installation for welding together the frame structure to the top longitudinal wire, and welding together the frame structure to the bottom longitudinal wire, and; b. a drive mechanism for transporting the spacers through the welding installation, the drive mechanism comprising a system which securely clamps the spacer for transportation, preferably by means of a mechanical gripping system such as a clamp; wherein the drive mechanism is configured to continuously securely clamp the spacer characterized in that the drive mechanism comprises at least two gripping systems, both of which perform a virtually identical repetitive movement comprising a succession of translational linear movements and pauses, the translational linear movement displacing the spacer, in which the repetitive movement of the first gripping system exhibits a phase shift with respect to the repetitive movement of the second gripping system.
A helmet mountable safety device for ensuring an open airway, comprising right and left mandible engaging sections , characterized in that each of said mandible engaging sections comprises an adjustable airway opening member for assuring opening of the airway, wherein each of said mandible engaging sections is connectable to a side portion within an interior of a helmet in order to facilitate engagement with the mandible of a wearer of said helmet upon demand.
A case-hardened steel component comprising: a base metal; and a carburized layer, wherein a chemical composition of the base metal includes, by mass%, C: 0.16% to 0.30%, Si: 0.10% to 2.00%, Mn: 0.30% to 2.00%, Cr: 0.20% to 3.00%, S: 0.001% to 0.100%, N: 0.003% to 0.010%, Ti: 0.020% to 0.200%, Nb: 0.010% or more and less than 0.050%, B: 0.0005% to 0.0050%, Ni: 0% to 3.00%, Mo: 0% to 0.80%, Cu: 0% to 1.00%, Co: 0% to 3.00%, W: 0% to 1.00%, V: 0% to 0.30%, Pb: 0% to 0.50%, Ca: 0% to 0.0100%, Mg: 0% to 0.0100%, Zr: 0% to 0.0500%, Te: 0% to 0.1000%, a rare earth metal: 0% to 0.0050%, Al: limited to 0.010% or less, O: limited to 0.0050% or less, P: limited to 0.025% or less, and Fe and impurities as a remainder, a number density of Ti-based precipitates having an equivalent circle diameter of 5 to 50 nm in a surface region from a surface to a depth of 0.1 mm is 0.5 pieces/μm 2 or more, and in the surface region, a number density of AlN having an equivalent circle diameter of 50 nm or more and 100 nm or less is 0.5 pieces/μm 2 or less. a base metal; and a carburized layer, wherein a chemical composition of the base metal includes, by mass%, C: 0.16% to 0.30%, Si: 0.10% to 2.00%, Mn: 0.30% to 2.00%, Cr: 0.20% to 3.00%, S: 0.001% to 0.100%, N: 0.003% to 0.010%, Ti: 0.020% to 0.200%, Nb: 0.010% or more and less than 0.050%, B: 0.0005% to 0.0050%, Ni: 0% to 3.00%, Mo: 0% to 0.80%, Cu: 0% to 1.00%, Co: 0% to 3.00%, W: 0% to 1.00%, V: 0% to 0.30%, Pb: 0% to 0.50%, Ca: 0% to 0.0100%, Mg: 0% to 0.0100%, Zr: 0% to 0.0500%, Te: 0% to 0.1000%, a rare earth metal: 0% to 0.0050%, Al: limited to 0.010% or less, O: limited to 0.0050% or less, P: limited to 0.025% or less, and Fe and impurities as a remainder, a number density of Ti-based precipitates having an equivalent circle diameter of 5 to 50 nm in a surface region from a surface to a depth of 0.1 mm is 0.5 pieces/μm 2 or more, and in the surface region, a number density of AlN having an equivalent circle diameter of 50 nm or more and 100 nm or less is 0.5 pieces/μm 2 or less.
A computer-implemented thickness measurement method, comprising: obtaining a fringe image of a multilayer object, the multilayer object comprising a thick layer and a thin layer; transforming the fringe image into reflectance information; performing a frequency analysis of the reflectance information; determining a total thickness of the object based on the frequency analysis of the reflectance information; determining a thickness of the thick layer as being equal to the determined total thickness; comparing the frequency analysis of the reflectance information to a frequency analysis of a theoretical model of the object; and determining a thickness of the thin layer based on the comparison, wherein the determined thicknesses are at the location of the object from which the fringe image was obtained. obtaining a fringe image of a multilayer object, the multilayer object comprising a thick layer and a thin layer; transforming the fringe image into reflectance information; performing a frequency analysis of the reflectance information; determining a total thickness of the object based on the frequency analysis of the reflectance information; determining a thickness of the thick layer as being equal to the determined total thickness; comparing the frequency analysis of the reflectance information to a frequency analysis of a theoretical model of the object; and determining a thickness of the thin layer based on the comparison, wherein the determined thicknesses are at the location of the object from which the fringe image was obtained.
A polycarbonate resin composition, comprising: a polycarbonate resin; inorganic fillers; an impact modifier comprising a modified olefin-based copolymer; and an olefin wax containing a reactive group comprising at least one of a carboxylic acid group, a carboxylic acid anhydride group, an epoxy group, and a glycidyl group, wherein the inorganic fillers comprise flake-type fillers and needle-like fillers, wherein a weight ratio of the flake-type fillers to the needle-like fillers ranges from about 1:0.5 to about 1:2. a polycarbonate resin; inorganic fillers; an impact modifier comprising a modified olefin-based copolymer; and an olefin wax containing a reactive group comprising at least one of a carboxylic acid group, a carboxylic acid anhydride group, an epoxy group, and a glycidyl group, wherein the inorganic fillers comprise flake-type fillers and needle-like fillers, wherein a weight ratio of the flake-type fillers to the needle-like fillers ranges from about 1:0.5 to about 1:2.
An ultrasound probe arrangement, comprising: a holder for application to a surface; a housing mounted over the holder, the housing having an inner guide surface which comprises a portion of a sphere; a probe carrier comprising a disc having an outer guide surface around the outer rim of the disc which comprises a portion of a sphere, wherein the probe carrier is slidable within the housing with the inner and outer guide surfaces in sliding contact, wherein the arrangement is configured such that a probe may be mounted in the carrier in a position such that a point of rotation of the probe caused by sliding of the probe carrier within the housing corresponds to a point of contact of a tip of the probe with the surface, and characterized in that the housing is receivable within the holder at an adjustable depth position within the holder, for adjusting a pressing force applied by a probe held in use by the probe carrier against the surface. a holder for application to a surface; a housing mounted over the holder, the housing having an inner guide surface which comprises a portion of a sphere; a probe carrier comprising a disc having an outer guide surface around the outer rim of the disc which comprises a portion of a sphere, wherein the probe carrier is slidable within the housing with the inner and outer guide surfaces in sliding contact, wherein the arrangement is configured such that a probe may be mounted in the carrier in a position such that a point of rotation of the probe caused by sliding of the probe carrier within the housing corresponds to a point of contact of a tip of the probe with the surface, and characterized in that the housing is receivable within the holder at an adjustable depth position within the holder, for adjusting a pressing force applied by a probe held in use by the probe carrier against the surface.