mhurhangee/ep-ind-claims huggingface dataset:
Charged particle unit for deflecting and energy-selecting charged particles of a charged particle beam, characterized by comprising: a double-focusing sector unit (470; 425,450; 914) for deflecting the charged particle beam and for focusing the charged particle beam in a first dimension and a second dimension; and an energy-filter (460; 560; 916) forming a potential-saddle, whereby charged particles of the charged particles beam are redirected at the potential-saddle depending on the energy of the charged particles. a double-focusing sector unit (470; 425,450; 914) for deflecting the charged particle beam and for focusing the charged particle beam in a first dimension and a second dimension; and an energy-filter (460; 560; 916) forming a potential-saddle, whereby charged particles of the charged particles beam are redirected at the potential-saddle depending on the energy of the charged particles.
A method of manufacturing metallic oxide particle-containing resin powder, including: dispersing metallic oxide particles having an average particle diameter of 0.003 μm to 0.1 μm and a UV shielding function in a (meth)acrylic-based resin monomer including 1% by mass to 50% by mass of a dispersant with respect to the metallic oxide particles to produce a (meth)acrylic-based resin monomer dispersion liquid; suspending or emulsifying the (meth)acrylic-based resin monomer dispersion liquid in pure water including 0.1% by mass to 10% by mass of a suspension protecting agent, 0.01% by mass to 5% by mass of a silicone-based antifoam agent, and 0.1% by mass to 10% by mass of a cross-linking agent with respect to the (meth)acrylic-based resin monomer dispersion liquid to produce a suspension liquid or emulsified liquid; and, adding 0.01% by mass to 1% by mass of a polymerization initiator with respect to the suspension liquid or emulsified liquid to the suspension liquid or emulsified liquid to cause suspension polymerization or emulsification polymerization, thereby generating metallic oxide particle-containing resin powder. dispersing metallic oxide particles having an average particle diameter of 0.003 μm to 0.1 μm and a UV shielding function in a (meth)acrylic-based resin monomer including 1% by mass to 50% by mass of a dispersant with respect to the metallic oxide particles to produce a (meth)acrylic-based resin monomer dispersion liquid; suspending or emulsifying the (meth)acrylic-based resin monomer dispersion liquid in pure water including 0.1% by mass to 10% by mass of a suspension protecting agent, 0.01% by mass to 5% by mass of a silicone-based antifoam agent, and 0.1% by mass to 10% by mass of a cross-linking agent with respect to the (meth)acrylic-based resin monomer dispersion liquid to produce a suspension liquid or emulsified liquid; and, adding 0.01% by mass to 1% by mass of a polymerization initiator with respect to the suspension liquid or emulsified liquid to the suspension liquid or emulsified liquid to cause suspension polymerization or emulsification polymerization, thereby generating metallic oxide particle-containing resin powder.
A device comprising a component, through which a hot medium can flow, and an insulating device of the component which contains an insulating material with or made of fibre material, wherein the insulating device or the insulating material at least partially surrounds the component, wherein the insulating material contains a hydrophobic and/or oleophobic finish or a hydrophobing or hydrophobic and/or oleophobing binding agent, wherein the insulating device is produced by means of a shaping process as a three-dimensional hydrophobic and/or oleophobic shaped part and wherein the shaping of the insulating device has taken place in a pressing process, characterised in that on its outer side facing away from said component the insulating device and/or the insulating material has a shielding outer sheath in the form of a metal foil and in that the outer sheath is designed as a structured metal foil with macro- or micro-structures.
A single-access catheter device (100, 300, 500) comprising: a first catheter (110, 310, 510) having a proximal and distal opening (112, 312) with a lumen therethrough; a first occluder (120, 320, 520) located within a distal region of the first catheter (110, 310, 510); a return port (130, 330, 530) located proximal to the first occluder (120, 320, 520); a conduit (150, 350, 520) connecting the distal opening (112, 312) of the first catheter (110, 310, 510) to the return port (130, 330, 530) for blood and embolic debris to enter, and the return port (130, 330, 530) being for reintroducing blood into the vasculature, the conduit including additional tubing positioned at the proximal opening of the first catheter (110, 310, 510) and proximal to the return port (130, 330, 530); and a second occluder (170, 370, 570) located proximal to the first occluder (120, 320, 520), the return port (130, 330, 530) is located proximal to the second occluder (170, 370, 570) and the distance between the first occluder (120, 320, 520) and the second occluder (170, 370, 570) is adjustable, wherein, the second occluder (170, 370, 570) is configured to create a pressure gradient such that when the first occluder (120, 320, 520) is expanded in a vessel, the pressure gradient causes blood to flow into the conduit (150, 350, 550) through the distal opening (112, 312), through the additional tubing, and to exit through the return port (130, 330, 530) so that blood flow is reversed. a first catheter (110, 310, 510) having a proximal and distal opening (112, 312) with a lumen therethrough; a first occluder (120, 320, 520) located within a distal region of the first catheter (110, 310, 510); a return port (130, 330, 530) located proximal to the first occluder (120, 320, 520); a conduit (150, 350, 520) connecting the distal opening (112, 312) of the first catheter (110, 310, 510) to the return port (130, 330, 530) for blood and embolic debris to enter, and the return port (130, 330, 530) being for reintroducing blood into the vasculature, the conduit including additional tubing positioned at the proximal opening of the first catheter (110, 310, 510) and proximal to the return port (130, 330, 530); and a second occluder (170, 370, 570) located proximal to the first occluder (120, 320, 520), the return port (130, 330, 530) is located proximal to the second occluder (170, 370, 570) and the distance between the first occluder (120, 320, 520) and the second occluder (170, 370, 570) is adjustable, wherein, the second occluder (170, 370, 570) is configured to create a pressure gradient such that when the first occluder (120, 320, 520) is expanded in a vessel, the pressure gradient causes blood to flow into the conduit (150, 350, 550) through the distal opening (112, 312), through the additional tubing, and to exit through the return port (130, 330, 530) so that blood flow is reversed.
A hearing aid fitting system, adapted for remote fitting of a hearing aid system, comprising a first client, an external device, a control server, a hearing aid system and link means adapted to allow the first client, the external device, the control server and the hearing aid system to communicate, wherein said first client comprises fitting software adapted to fit a hearing aid based on a selected hearing aid user profile having a unique user identification and fitting connection software means adapted to provide the unique hearing aid user identification to the control server and to request said control server to establish a direct communication channel between said first client and said external device, wherein said external device comprises a unique device identification, external device connection software means adapted to provide said unique device identification to the control server, redirecting means adapted to direct the content of the data transmitted over said direct communication channel to the hearing aid system, and wherein said control server comprises a look-up database that holds pairs of unique hearing aid user identifications and unique device identifications and interface means adapted to provide the direct communication channel between the first client and the external device based on corresponding user and device identifications, wherein the hearing aid fitting system is adapted such that data used to fit the hearing aid system is transmitted using the first client, the direct communication channel and the external device..
A system for deploying at least one clip during a medical procedure, the system comprising: a clip having first and second arms, wherein distal regions of the first and second arms tend to be spaced apart from each other when the clip is in an open state, and wherein the distal regions of the first and second arms are adjacent to each other when the clip is in a closed state; a locking pin having a proximal end, a distal end, and a main body extending therebetween, wherein the locking pin is coupled to the clip and disposed for incremental movement relative to the clip; and a tether coupled to the locking pin, wherein a first tether segment is secured to the distal region of the second arm, and a second tether segment is secured to the distal region of the first arm, wherein proximal retraction of the locking pin causes a proximal retraction of the first and second tether segments to move the clip between the open and closed states, characterised in that the first and second tether segments cross paths, but do not physically intersect. a clip having first and second arms, wherein distal regions of the first and second arms tend to be spaced apart from each other when the clip is in an open state, and wherein the distal regions of the first and second arms are adjacent to each other when the clip is in a closed state; a locking pin having a proximal end, a distal end, and a main body extending therebetween, wherein the locking pin is coupled to the clip and disposed for incremental movement relative to the clip; and a tether coupled to the locking pin, wherein a first tether segment is secured to the distal region of the second arm, and a second tether segment is secured to the distal region of the first arm, wherein proximal retraction of the locking pin causes a proximal retraction of the first and second tether segments to move the clip between the open and closed states, characterised in that the first and second tether segments cross paths, but do not physically intersect.
A gemstone, comprising a) a crown having a flat table (1, 19) and main crown facets (3, 11) being arranged around the table and being inclined relative to the table, b) a girdle (54, 13) at which the gemstone has its largest transverse dimension, and c) a pavilion adjoining the girdle from below the girdle and having main pavilion facets (7, 15) around the girdle, characterized in that the number of the main pavilion facets (7, 15) is 7 a) a crown having a flat table (1, 19) and main crown facets (3, 11) being arranged around the table and being inclined relative to the table, b) a girdle (54, 13) at which the gemstone has its largest transverse dimension, and c) a pavilion adjoining the girdle from below the girdle and having main pavilion facets (7, 15) around the girdle, characterized in that the number of the main pavilion facets (7, 15) is 7
A cable comprising: at least one optical fiber cable; at least two electrical cables provided so as to sandwich the at least one optical fiber cable; and plugs positioned at both ends and each having an electrical contact part connected to each of the electrical cables, the cable characterized in that one or both of the plugs are provided with a positioning hole part (61, 62) for joining with a receptacle, and in that each of the electrical contact parts comprises a spring element and is moved to the inside of the positioning hole part (61, 62) when the plugs are joined with the receptacle. at least one optical fiber cable; at least two electrical cables provided so as to sandwich the at least one optical fiber cable; and plugs positioned at both ends and each having an electrical contact part connected to each of the electrical cables, the cable characterized in that one or both of the plugs are provided with a positioning hole part (61, 62) for joining with a receptacle, and in that each of the electrical contact parts comprises a spring element and is moved to the inside of the positioning hole part (61, 62) when the plugs are joined with the receptacle.
Mounted turnover plow comprising a support wheel, a fastening device for the support wheel, a mounting bracket and a plow frame, the plow frame being turnable about a horizontal turning axis relative to the mounting bracket by means of at least one turning cylinder, and the support wheel being arranged on the plow frame via the fastening device, the fastening device comprising a rotation axis lying transversely to the turning axis, a working depth adjustment member, a reversing mechanism and a releasable locking device, the support wheel arranged on a wheel arm that is pivotably hinged to the rotation axis being pivotally movable about the rotation axis into both working positions on opposite sides of the plow frame by means of the working depth adjustment member and the working depth adjustment member being able to be brought out of operative connection with the support wheel by means of the locking device, the reversing mechanism having an articulation axis extending transversely to the axis of rotation, about which the support arm, preferably when the locking device is released, can be pivoted into a transport position relative to the axis of rotation, the fastening device comprising a coupling element, preferably rotatably fastened to the axis of rotation, characterized in that the working depth adjustment member is arranged on the plow frame on one side and on the coupling element on the other side, and the locking device is arranged between the support arm and the coupling element.
Method for disinfecting water, wherein ultrasonic pressure waves are induced into a flow of water, wherein the method is carried out in a disinfection device comprising a substantially tubular channel, wherein said ultrasonic waves are induced by impact surfaces of pressure waves inducing blades arranged in the tubular channel and aligned along the direction of the flow of water, each of said surfaces partially obstructing the passage of said flow of water, the pressure waves have a carrier frequency Fc which is equal to v / p wherein v is the speed of water and p is a constant pitch distance between the said impact surfaces, said carrier frequency is about 160 Hz, said pressure waves inducing blades are shaped as rods or bars, preferably rectangular bars, and have a fundamental frequency of vibration or a frequency of a higher mode of vibration equal to said carrier frequency, wherein the blades are aligned in an axial direction of the tubular channel and a front surface of each blade, facing the incoming flow of water, provides the respective impact surface for the flow of water, wherein the frequency f n of a selected mode of transversal vibration of said blades is equal to said carrier frequency Fc, and said selected mode of vibration being the first mode or a higher n-th mode according to the inner diameter of said tubular passage, and according to the following table: n Inner diameter (mm) 1 up to 15.8 2 15.9 - 26.6 3 26.7 - 40.9 4 41 - 62.7 5 62.8 - 95.3 6 > 95.3
A method comprising: determining a cell specific cyclic shift from a received indication of the cell specific cyclic shift; determining a quantized cyclic shift of a reference signal as a combination of the cell specific cyclic shift with an outcome of a pseudo-random cyclic shift hopping according to Cyclic _ sft _ slot 2 cell = mod Cyclic _ sft _ slot 2 + increment cell, Num _ Shifts, wherein mod (a,b) is a modulo operation, the result of this modulo operation being the remainder, i.e. remainder = a mod b, Cyclic_sft_slot2 as a first parameter of the sum is the outcome of the pseudo-random hopping, increment(cell) as a second parameter of the sum is the cell specific cyclic shift, Num_Shifts is the total number of allowed cyclic shifts (the divisor of the modulo operation), and Cyclic_sft_slot2(cell) is the quantized cyclic shift of the reference signal; and sending a reference signal that is cyclically shifted according to the determined quantized cyclic shift. determining a cell specific cyclic shift from a received indication of the cell specific cyclic shift; determining a quantized cyclic shift of a reference signal as a combination of the cell specific cyclic shift with an outcome of a pseudo-random cyclic shift hopping according to Cyclic _ sft _ slot 2 cell = mod Cyclic _ sft _ slot 2 + increment cell, Num _ Shifts, wherein mod (a,b) is a modulo operation, the result of this modulo operation being the remainder, i.e. remainder = a mod b, Cyclic_sft_slot2 as a first parameter of the sum is the outcome of the pseudo-random hopping, increment(cell) as a second parameter of the sum is the cell specific cyclic shift, Num_Shifts is the total number of allowed cyclic shifts (the divisor of the modulo operation), and Cyclic_sft_slot2(cell) is the quantized cyclic shift of the reference signal; and mod (a,b) is a modulo operation, the result of this modulo operation being the remainder, i.e. remainder = a mod b, Cyclic_sft_slot2 as a first parameter of the sum is the outcome of the pseudo-random hopping, increment(cell) as a second parameter of the sum is the cell specific cyclic shift, Num_Shifts is the total number of allowed cyclic shifts (the divisor of the modulo operation), and Cyclic_sft_slot2(cell) is the quantized cyclic shift of the reference signal; and sending a reference signal that is cyclically shifted according to the determined quantized cyclic shift.
A preform for making a carbon-carbon composite comprising: a plurality of layers comprising carbon fibers or carbon-precursor fibers, wherein the plurality of layers are stacked along a central axis to form a stack, wherein the plurality of layers comprise a first exterior layer defining a first major surface of the preform, a second exterior layer defining a second major surface of the preform opposite the first major surface, and at least one interior layer disposed between the first exterior layer and the second exterior layer, the at least one interior layer having a peripheral region that forms a portion of an outer surface of the preform; and a plurality of needled fibers, wherein at least some needled fibers of the plurality of needled fibers extend through two or more layers of the plurality of layers; wherein the preform has an exterior region and a core region, wherein the exterior region fully surrounds the core region, and wherein the exterior region includes at least the peripheral region of the at least one interior layer; wherein the plurality of needled fibers define a first needled fiber number density, NFND, in the exterior region and a second NFND in at least a portion of the core region, wherein the second NFND is greater than the first NFND. a plurality of layers comprising carbon fibers or carbon-precursor fibers, wherein the plurality of layers are stacked along a central axis to form a stack, wherein the plurality of layers comprise a first exterior layer defining a first major surface of the preform, a second exterior layer defining a second major surface of the preform opposite the first major surface, and at least one interior layer disposed between the first exterior layer and the second exterior layer, the at least one interior layer having a peripheral region that forms a portion of an outer surface of the preform; and a plurality of needled fibers, wherein at least some needled fibers of the plurality of needled fibers extend through two or more layers of the plurality of layers; wherein the preform has an exterior region and a core region, wherein the exterior region fully surrounds the core region, and wherein the exterior region includes at least the peripheral region of the at least one interior layer; wherein the plurality of needled fibers define a first needled fiber number density, NFND, in the exterior region and a second NFND in at least a portion of the core region, wherein the second NFND is greater than the first NFND.
A moulding material mixture comprising: - a phenolic resin of the benzyl ether type; - one or more polyisocyanate compounds having at least 2 isocyanate groups per molecule; and - a silicone surfactant comprising at least one polyalkoxy group in addition to at least one unit -Si(C1-C3 alkyl) 2 -O-, and - basic refractory moulding materials. - a phenolic resin of the benzyl ether type; - one or more polyisocyanate compounds having at least 2 isocyanate groups per molecule; and - a silicone surfactant comprising at least one polyalkoxy group in addition to at least one unit -Si(C1-C3 alkyl) 2 -O-, and - basic refractory moulding materials.
A small cell, wherein the small cell comprises: a sending unit, configured to report load information and channel state information of a channel between the small cell and a neighboring small cell to a base station, wherein both a coverage range of the small cell and a coverage range of the neighboring small cell are within a coverage range of the base station; a receiving unit, configured to receive link scheduling signaling sent by the base station according to the load information and the channel state information, wherein the link scheduling signaling comprises wireless resource scheduling information, and the wireless resource scheduling information is used to allocate, to the small cell, a first wireless resource required by a wireless backhaul link of the small cell; and an allocating unit, configured to allocate a second wireless resource on the wireless backhaul link except the first wireless resource to an access link, wherein the access link is used for data transmission between the small cell and user equipment. a sending unit, configured to report load information and channel state information of a channel between the small cell and a neighboring small cell to a base station, wherein both a coverage range of the small cell and a coverage range of the neighboring small cell are within a coverage range of the base station; a receiving unit, configured to receive link scheduling signaling sent by the base station according to the load information and the channel state information, wherein the link scheduling signaling comprises wireless resource scheduling information, and the wireless resource scheduling information is used to allocate, to the small cell, a first wireless resource required by a wireless backhaul link of the small cell; and an allocating unit, configured to allocate a second wireless resource on the wireless backhaul link except the first wireless resource to an access link, wherein the access link is used for data transmission between the small cell and user equipment.