mhurhangee/patent-ind-claim-en huggingface dataset:
A control unit configured to control the operation of a medical cooling device conducting a non-invasive medical cooling process for reducing the body core temperature of a patient, wherein the operation of the medical cooling device is based on a number of process parameters, the control unit being configured to: monitor at least one process parameter relating to a state of shivering of the patient; make a decision relating to the state or degree of shivering of the patient based on said at least one monitored process parameter; adapting a control process parameter based on said at least one monitored process parameter and the decision made, to increase a body core temperature of the patient thereby putting the patient in a reduced state of shivering or a non-shivering state; and re-start the medical cooling process according to the adapted control process parameter, characterized in that said at least one process parameter relates to a temperature difference between the temperature of the cooling fluid exiting the medical cooling device to the patient and the temperature of the cooling fluid returning to the medical cooling device from the patient, wherein the temperature difference comprises an increase in return temperature when in a shivering state. monitor at least one process parameter relating to a state of shivering of the patient; make a decision relating to the state or degree of shivering of the patient based on said at least one monitored process parameter; adapting a control process parameter based on said at least one monitored process parameter and the decision made, to increase a body core temperature of the patient thereby putting the patient in a reduced state of shivering or a non-shivering state; and re-start the medical cooling process according to the adapted control process parameter, characterized in that said at least one process parameter relates to a temperature difference between the temperature of the cooling fluid exiting the medical cooling device to the patient and the temperature of the cooling fluid returning to the medical cooling device from the patient, wherein the temperature difference comprises an increase in return temperature when in a shivering state.
A trimming machine comprising: an electric motor ; a blade drive gear rotationally driven by the electric motor ; an eccentric cam provided in the gear ; and a pair of blades relatively slidably facing and contacting each other, wherein: the eccentric cam is adapted to reciprocate the pair of blades in relatively opposite directions along a longitudinal direction of the blades , thereby grinding cutting edges against each other, the cutting edges provided in a protruding manner with gaps therebetween in the pair of blades , characterized in that a shock absorbing portion is provided between a connecting portion connected to the eccentric cam and the cutting edges in each of the blades , the shock absorbing portion being adapted to be deformed so as to release shock generated when the blades are locked. an electric motor ; a blade drive gear rotationally driven by the electric motor ; an eccentric cam provided in the gear ; and a pair of blades relatively slidably facing and contacting each other, wherein: the eccentric cam is adapted to reciprocate the pair of blades in relatively opposite directions along a longitudinal direction of the blades , thereby grinding cutting edges against each other, the cutting edges provided in a protruding manner with gaps therebetween in the pair of blades , characterized in that a shock absorbing portion is provided between a connecting portion connected to the eccentric cam and the cutting edges in each of the blades , the shock absorbing portion being adapted to be deformed so as to release shock generated when the blades are locked. the eccentric cam is adapted to reciprocate the pair of blades in relatively opposite directions along a longitudinal direction of the blades , thereby grinding cutting edges against each other, the cutting edges provided in a protruding manner with gaps therebetween in the pair of blades , characterized in that a shock absorbing portion is provided between a connecting portion connected to the eccentric cam and the cutting edges in each of the blades , the shock absorbing portion being adapted to be deformed so as to release shock generated when the blades are locked.
Use of polymer composition comprising a first propylene polymer A and a second propylene polymer B for producing crimped multicomponent fibers having a side by side cross-sectional configuration, wherein (i) the first propylene polymer A and second propylene polymer B are distributed over the cross section of the fiber in a side by side arrangement, wherein the interface line, contained in the radial plane of the fibers, between the two propylene polymers A and B is curved and its curvature (c) is c = h b = 0.05 to 0.25 wherein the baseline length (b) is the length of the imaginary straight baseline connecting the two endpoints of the curved interface line, and the bow height (h) is the distance of the crest of the curved interface line from the baseline, (ii)the mass ratio of the first propylene polymer A and the second propylene polymer B [A:B] is in the range of 10: 90 to 90:10, and (iii) the absolute value of the difference of the crystallization temperature [Tc (A)] of the first propylene polymer A and the crystallization temperature [Tc (B)] of the second propylene polymer B determined according to ISO11357 with a scan rate of 10°C/min is in the range of 6 to 30°C. (i) the first propylene polymer A and second propylene polymer B are distributed over the cross section of the fiber in a side by side arrangement, wherein the interface line, contained in the radial plane of the fibers, between the two propylene polymers A and B is curved and its curvature (c) is c = h b = 0.05 to 0.25 wherein the baseline length (b) is the length of the imaginary straight baseline connecting the two endpoints of the curved interface line, and the bow height (h) is the distance of the crest of the curved interface line from the baseline, (ii)the mass ratio of the first propylene polymer A and the second propylene polymer B [A:B] is in the range of 10: 90 to 90:10, and (iii) the absolute value of the difference of the crystallization temperature [Tc (A)] of the first propylene polymer A and the crystallization temperature [Tc (B)] of the second propylene polymer B determined according to ISO11357 with a scan rate of 10°C/min is in the range of 6 to 30°C.
Bogie frame for a rail vehicle, comprising two longitudinal supports , two inner transverse supports and two outer transverse supports , wherein the longitudinal supports and at least one transverse support are in each case exclusively formed from an open profile, characterised in that the longitudinal supports have no top chord, but rather only a bottom chord , the outer transverse support(s) has/have no bottom chord, but rather only has/have a top chord , wherein the bottom chords of the longitudinal support rigidly transition into a top chord of the inner transverse support(s) .
A method of controlling a direction of a down hole toolface of a bottom hole assembly for slide drilling, comprising: a) rotating a drill string and synchronizing the toolface to allow drill string rotation to be stopped when the toolface is in a required rotational position, wherein synchronizing the toolface comprises determining a relationship between a rotational position of the down hole toolface with a rotational position of a drill string at the surface of a formation for at least one point in time, the drill string being coupled to the bottom hole assembly; b) after synchronizing the toolface, stopping rotation of the drill string in the required rotational position; c) controlling torque at the surface of the drill string to control the rotational position of the toolface; and d) commencing slide drilling. a) rotating a drill string and synchronizing the toolface to allow drill string rotation to be stopped when the toolface is in a required rotational position, wherein synchronizing the toolface comprises determining a relationship between a rotational position of the down hole toolface with a rotational position of a drill string at the surface of a formation for at least one point in time, the drill string being coupled to the bottom hole assembly; b) after synchronizing the toolface, stopping rotation of the drill string in the required rotational position; c) controlling torque at the surface of the drill string to control the rotational position of the toolface; and d) commencing slide drilling.
Sliding bearing composite material with a metallic support layer , in particular of steel or of a copper alloy, with a porous backing layer , in particular of bronze, preferably of lead-free bronze, and with a polymer-based sliding layer material , optionally with fillers influencing the tribological properties, which is impregnated in the porous backing layer and forms a projection above the porous backing layer , wherein the backing layer is a sinter layer which is formed of particles which are sintered together and with the support layer , wherein the particles are round or bulbous, wherein a layer thickness of the porous backing layer is 130 - 200 μm and wherein at least 90 mass% of the sintered particles have a particle size of between 45 and 125 μm and wherein at most 4 mass% of the sintered particles have a particle size of more than 125 μm and at most 8 mass% have a particle size below 45 μm, and wherein the particle size of the sintered particles forming the backing layer follows a particle size distribution according to the relationship R = e − t η β , where R is a cumulative sieve residue from a sieve residue examination and t is a respective mesh width used in the sieve residue examination, and that the characteristic particle size η lies between 75 and 100 μm, and wherein the form parameter β is at least 5.0, and wherein the porosity of the backing layer is at least 35 % and at most 55 %.
Implant formed as an intraluminal endoprosthesis comprising a basic structure formed as a hollow cylinder, wherein a nonwoven fabric arranged in and/or on the basic structure, wherein the basic structure comprises a magnesium alloy or a polymer selected from the class of biodegradable polymers, wherein at least one section of the implant further comprises a fastening means (2", 12, 14, 16, 18, 20) or the nonwoven fabric treated to prevent or reduce, at least in an expanded state of the implant, either a protrusion of nonwoven fabric sections from the basic structure, and/or formation of more extensive regions, which comprises fibers or fiber sections protruding from the basic structure, characterized in that the fastening means is formed by a hydrogel and/or a hydrogel-based adhesive , which is arranged at the outer side of the nonwoven fabric.
A method comprising: receiving , by a proxy node, a Common Public Radio Interface, CPRI, bit stream transmitted by a radio equipment controller, wherein the CPRI bit stream is transmitted within a transmit time interval of the radio equipment controller; oversampling , by the proxy node, the CPRI bit stream to determine whether a hyper frame number synchronization with the radio equipment controller at a common matching link bit rate is achievable, wherein the oversampling comprises attempting to decode the received CPRI bit stream and achieve the hyper frame number synchronization for each of a plurality of link bit rates configured for a oversampling time period during at least one oversampling time interval configured for the proxy node; and upon the proxy node achieving the hyper frame number synchronization with the radio equipment controller at a particular link bit rate, communicating the received CPRI bit stream and the particular link bit rate to another proxy node via a packet-based network. receiving , by a proxy node, a Common Public Radio Interface, CPRI, bit stream transmitted by a radio equipment controller, wherein the CPRI bit stream is transmitted within a transmit time interval of the radio equipment controller; oversampling , by the proxy node, the CPRI bit stream to determine whether a hyper frame number synchronization with the radio equipment controller at a common matching link bit rate is achievable, wherein the oversampling comprises attempting to decode the received CPRI bit stream and achieve the hyper frame number synchronization for each of a plurality of link bit rates configured for a oversampling time period during at least one oversampling time interval configured for the proxy node; and upon the proxy node achieving the hyper frame number synchronization with the radio equipment controller at a particular link bit rate, communicating the received CPRI bit stream and the particular link bit rate to another proxy node via a packet-based network.
A grain-oriented electrical steel sheet in which a forsterite film is not present between a base steel sheet and a tension-insulation coating, wherein the base steel sheet contains: 0.085% by mass or less of C; 0.80 to 7.00% by mass of Si; 0.05 to 1.00% by mass of Mn: 0.065% by mass or less of acid-soluble Al; 0.003% by mass or less of S; 0.0040% by mass or less of N; 0.0005 to 0.0080% by mass of B; 0 to 0.50% by mass of P; 0 to 1.00% by mass of Ni; 0 to 0.30% by mass of Sn; 0 to 0.30% by mass of Sb; 0 to 0.40% by mass of Cu; 0 to 0.30% by mass of Cr; 0 to 0.01% by mass of Bi; and a remainder of Fe and impurities as a chemical composition thereof, and wherein a cross section perpendicular to a rolling direction of the base steel sheet is viewed, and an observation region is a region having a length of 10 μm from a surface of the base steel sheet toward the inside of the base steel sheet in a sheet thickness direction of the base steel sheet and a length of 20 mm in a direction perpendicular to the sheet thickness direction, wherein needle-like inclusions as determined in accordance with the description having a length of 1 μm or more are not present in the observation region, wherein a needle-like inclusion is an inclusion in which a maximum major axis/maximum minor axis is 10 or more. 0.085% by mass or less of C; 0.80 to 7.00% by mass of Si; 0.05 to 1.00% by mass of Mn: 0.065% by mass or less of acid-soluble Al; 0.003% by mass or less of S; 0.0040% by mass or less of N; 0.0005 to 0.0080% by mass of B; 0 to 0.50% by mass of P; 0 to 1.00% by mass of Ni; 0 to 0.30% by mass of Sn; 0 to 0.30% by mass of Sb; 0 to 0.40% by mass of Cu; 0 to 0.30% by mass of Cr; 0 to 0.01% by mass of Bi; and a remainder of Fe and impurities as a chemical composition thereof, and wherein a cross section perpendicular to a rolling direction of the base steel sheet is viewed, and an observation region is a region having a length of 10 μm from a surface of the base steel sheet toward the inside of the base steel sheet in a sheet thickness direction of the base steel sheet and a length of 20 mm in a direction perpendicular to the sheet thickness direction, wherein needle-like inclusions as determined in accordance with the description having a length of 1 μm or more are not present in the observation region, wherein a needle-like inclusion is an inclusion in which a maximum major axis/maximum minor axis is 10 or more.
A tubular graft for use in a stent graft, the tubular graft comprising: a woven tapered portion , the woven tapered portion having an edge that extends along a decreasing-diameter portion of the tubular graft, wherein the tapered portion includes a first weft thread, a second weft thread, and a third weft thread, the second weft thread being between the first weft thread and the third weft thread, characterised in that the first weft thread and the third weft thread engage a first warp end at the edge of the tapered portion such that the first warp end is secured to the edge at the first weft thread and the third weft thread, and in that a floating portion of the first warp end extends from the first weft thread to the third weft thread such that the floating portion bypasses the second weft thread. a woven tapered portion , the woven tapered portion having an edge that extends along a decreasing-diameter portion of the tubular graft, wherein the tapered portion includes a first weft thread, a second weft thread, and a third weft thread, the second weft thread being between the first weft thread and the third weft thread, characterised in that the first weft thread and the third weft thread engage a first warp end at the edge of the tapered portion such that the first warp end is secured to the edge at the first weft thread and the third weft thread, and in that a floating portion of the first warp end extends from the first weft thread to the third weft thread such that the floating portion bypasses the second weft thread.
A rolling tarp deployment system comprising: a flatbed trailer having a bed portion configured to accommodate cargo; a first bow movable along the flatbed trailer ; a first tensioning assembly having a first member secured to the first bow, a second member secured to the flatbed trailer , and a first actuator motor configured to engage and disengage the first and second members, wherein the first and second members engaged restrains the first bow to the flatbed trailer ; a first motorized roller assembly mounted to the first bow and configured to move the first bow along the flatbed trailer ; a second bow movable along the flatbed trailer ; a second tensioning assembly having a third member secured to the second bow, a fourth member secured to the flatbed trailer , and a second actuator motor configured to engage and disengage the third and fourth members, wherein the third and fourth members engaged moves the second bow away from the first bow and applies a tensioning force to the first bow when the first and second members are engaged; and a second motorized roller assembly mounted to the second bow and configured to move the second bow along the flatbed trailer . a flatbed trailer having a bed portion configured to accommodate cargo; a first bow movable along the flatbed trailer ; a first tensioning assembly having a first member secured to the first bow, a second member secured to the flatbed trailer , and a first actuator motor configured to engage and disengage the first and second members, wherein the first and second members engaged restrains the first bow to the flatbed trailer ; a first motorized roller assembly mounted to the first bow and configured to move the first bow along the flatbed trailer ; a second bow movable along the flatbed trailer ; a second tensioning assembly having a third member secured to the second bow, a fourth member secured to the flatbed trailer , and a second actuator motor configured to engage and disengage the third and fourth members, wherein the third and fourth members engaged moves the second bow away from the first bow and applies a tensioning force to the first bow when the first and second members are engaged; and a second motorized roller assembly mounted to the second bow and configured to move the second bow along the flatbed trailer .
Stable holding body for insertable posts, for example for fastening traffic signs or external sensors/actuators, comprising an upper face and a lower face , an electronic circuit for processing information being arranged within the holding body , the electronic circuit having a transmitting and receiving device, characterised in that the holding body can be stacked; that electrical energy and data can be exchanged with an electronic circuit of a second holding body via the transmitting and receiving device when the two holding bodies are stacked on top of one another, and in that the holding body has at least one opening for inserting rods , the transmitting and receiving device being a group of electrical contact surfaces which are arranged on the upper face and on the lower face of the holding body such that the contact surfaces on the upper face of the holding body can then be in electrical connection with the contact surfaces on the lower face of a structurally identical second holding body when the two holding bodies are stacked.
A reamer for cutting tissue, which comprises: a) a cutting shell having a shell wall with spaced apart exterior and interior shell surfaces, a shell wall thickness therebetween, the shell having a curvature comprising at least a portion of a first hemisphere extending from an apex to a lower edge , the cutting shell being rotatable about a rotational axis (A-A) that extends through the apex, the cutting shell composed of a first material having a first coefficient of thermal conductivity; b) a second material having a second coefficient of thermal conductivity that is different than the first coefficient of thermal conductivity of the first material; and c) a plurality of cutting teeth , formed of said first material each having a tissue cutting surface , wherein the tissue cutting surface extends outwardly from the exterior surface of the shell; characterized in that : d) the first coefficient of thermal conductivity of the first material is less than the second coefficient of thermal conductivity of the second material; e) at least a layer of the second material is applied to the interior or exterior surface of the shell or both the interior and exterior surfaces, the teeth being with or without said layer of second material. a) a cutting shell having a shell wall with spaced apart exterior and interior shell surfaces, a shell wall thickness therebetween, the shell having a curvature comprising at least a portion of a first hemisphere extending from an apex to a lower edge , the cutting shell being rotatable about a rotational axis (A-A) that extends through the apex, the cutting shell composed of a first material having a first coefficient of thermal conductivity; b) a second material having a second coefficient of thermal conductivity that is different than the first coefficient of thermal conductivity of the first material; and c) a plurality of cutting teeth , formed of said first material each having a tissue cutting surface , wherein the tissue cutting surface extends outwardly from the exterior surface of the shell; d) the first coefficient of thermal conductivity of the first material is less than the second coefficient of thermal conductivity of the second material; e) at least a layer of the second material is applied to the interior or exterior surface of the shell or both the interior and exterior surfaces, the teeth being with or without said layer of second material.
An adhesive applicator comprising a receiver having a tubular body with a closed first end and an opposed second end , said tubular body having a deformable wall , an adhesive composition contained within the tubular body, an applicator tip mounted on the tubular body and comprising a foam material having an applicator surface external of the applicator for applying said adhesive, the applicator being such that deformation of the tubular body causes said adhesive to be expressed through the applicator tip , wherein the foam material is a reticulated foam felt; said second end is an open end and wherein the adhesive composition is contained within a sealed ampoule formed of a frangible material such that deformation of the wall in use is capable of fracturing the ampoule to release the adhesive composition contained therein and express the adhesive composition through the applicator tip ; and the applicator tip comprises a hollow former mounted on the open second end of the tubular body and having an openwork end face remote from the body and inclined to the longitudinal axis thereof, said openwork end face being a shard barrier configured in the form of a mesh between the ampoule and reticulated foam felt ; and said reticulated foam felt being supported over the end face of the former .