mhurhangee/patent-ind-claim-en huggingface dataset:
A crane comprising: - a mast , - an elongated boom connected to the mast having a front portion extending on one side of the mast and a rear portion extending on the opposite side of the mast, and the boom is linearly movable relative to the mast such that the length of the front portion and the length of the rear portion is adjustable by moving the boom relative to mast, and - a counterweight movably connected to the boom , characterized in that the crane comprises a first transmission system for moving the counterweight along the boom and a second transmission system for moving the boom relative to the mast, and the first and second transmission systems are arranged to independently move the counterweight and the boom , and the counterweight and the boom are arranged so that the counterweight can pass the mast and be moved between the front portion and the rear portion independent of the position of the boom with respect to the mast . - a mast , - an elongated boom connected to the mast having a front portion extending on one side of the mast and a rear portion extending on the opposite side of the mast, and the boom is linearly movable relative to the mast such that the length of the front portion and the length of the rear portion is adjustable by moving the boom relative to mast, and - a counterweight movably connected to the boom , characterized in that the crane comprises a first transmission system for moving the counterweight along the boom and a second transmission system for moving the boom relative to the mast, and the first and second transmission systems are arranged to independently move the counterweight and the boom , and the counterweight and the boom are arranged so that the counterweight can pass the mast and be moved between the front portion and the rear portion independent of the position of the boom with respect to the mast .
A directed delivery apparatus , for drone delivery of an item to a location, the apparatus including: a receptacle to receive the item at the location, a plurality of location means about the perimeter of the receptacle to specifically define where the item is to be placed, the location means being able to communicate with the drone such that the drone can align to the correct receptacle within the GPS location before release of the item within; a plurality of securable containers to receive the delivered item , spaced some distance from the receptacle , in substantially the vertical plane; and a conduit between the receptacle and the containers to direct the item from the receptacle to one securable container of the plurality of securable containers minimising the risk of damage during travel and characterised in that the conduit includes a spiral arrangement which directs the movement of the item between the receptacle and the securable containers , and in that the securable containers are spaced from each other vertically along the spiral arrangement and in that the spiral arrangement comprises one or more controlled gates , controlled in response to the delivery of the item by the drone to direct the item into the correct securable container . a receptacle to receive the item at the location, a plurality of location means about the perimeter of the receptacle to specifically define where the item is to be placed, the location means being able to communicate with the drone such that the drone can align to the correct receptacle within the GPS location before release of the item within; a plurality of securable containers to receive the delivered item , spaced some distance from the receptacle , in substantially the vertical plane; and a conduit between the receptacle and the containers to direct the item from the receptacle to one securable container of the plurality of securable containers minimising the risk of damage during travel and characterised in that the conduit includes a spiral arrangement which directs the movement of the item between the receptacle and the securable containers , and in that the securable containers are spaced from each other vertically along the spiral arrangement and in that the spiral arrangement comprises one or more controlled gates , controlled in response to the delivery of the item by the drone to direct the item into the correct securable container .
A formulation for topical application comprising, in percentages by weight of the total weight of the formulation, 0.5%-10% of N-acetylcysteine and 2-30% of urea and a dermatologically acceptable vehicle, for use in the treatment and/or prevention of a condition selected from the group consisting of dermatological disorders of the Sudeck syndrome, chemotherapy-induced palmar-plantar erythrodysesthesia, dermatological disorders caused by radiotherapy and diabetic foot syndrome.
An artificial antigen presenting cell (aAPC) comprising a polymeric nanoparticle having attached polypeptide ligands suitable for activating antigen-specific T cells, the nanoparticle having a size in the range of 20 to 200 nm, and comprising: a polylactic acid (PLA) polymer core, and a hydrophilic shell formed of polyethylene glycol (PEG), wherein the polymeric nanoparticle comprises PLA-PEG and PLA-methoxyPEG (mPEG) block co-polymers with the PLA portion having molecular weights of from about 10 kDa to about 30 kDa and the PEG portion having molecular weight(s) of from about 2 kDa to about 10 kDa, with the PEG portion forming the hydrophilic shell, wherein the PLA-PEG and PLA-mPEG block co-polymers are present at a ratio of 1:10 to 2:1 by mass; and wherein a portion of the PLA-PEG polymers have a terminal attachment of a polypeptide ligand; wherein the polypeptide ligands comprise peptide-HLA ligands and one or more of anti-CD28 and anti-4-1BB ligands. a polylactic acid (PLA) polymer core, and a hydrophilic shell formed of polyethylene glycol (PEG), wherein the polymeric nanoparticle comprises PLA-PEG and PLA-methoxyPEG (mPEG) block co-polymers with the PLA portion having molecular weights of from about 10 kDa to about 30 kDa and the PEG portion having molecular weight(s) of from about 2 kDa to about 10 kDa, with the PEG portion forming the hydrophilic shell, wherein the PLA-PEG and PLA-mPEG block co-polymers are present at a ratio of 1:10 to 2:1 by mass; and wherein a portion of the PLA-PEG polymers have a terminal attachment of a polypeptide ligand; wherein the polypeptide ligands comprise peptide-HLA ligands and one or more of anti-CD28 and anti-4-1BB ligands.
A device for loading an in particular higher-viscosity liquid with a gas, in particular with air, the device comprising a vessel holding the liquid and the gas, and comprising an agitator which is arranged at least in part in the vessel and which comprises a drive shaft that passes vertically through the vessel at least in part, the drive shaft being arranged in a conveying tube and driving a conveying element which transports the liquid through the conveying tube to at least one outlet , characterized in that the vessel is designed as a pressure vessel and in that a run-off surface for the liquid flowing out of the outlet is provided below the outlet from the conveying tube , which run-off surface is arranged above the liquid level of a liquid supply located in the pressure vessel .
A resin composition comprising: a cyanate compound (A) having a structure represented by the following formula : wherein Ar each independently represents an aromatic ring, R 1 each independently represents a hydrogen atom, an alkyl group, or an aryl group, n represents 1.1 to 20 as an average value, 1 each independently represents number of bonded cyanato groups and is an integer of 1 to 3, m each independently represents number of bonded R 1 and represents number obtained by subtracting 1 from number of replaceable groups on Ar, and R 2 each independently represents a hydrogen atom or an alkyl group having 1 to 4 carbon atoms; and an epoxy resin (B). a cyanate compound (A) having a structure represented by the following formula : wherein Ar each independently represents an aromatic ring, R 1 each independently represents a hydrogen atom, an alkyl group, or an aryl group, n represents 1.1 to 20 as an average value, 1 each independently represents number of bonded cyanato groups and is an integer of 1 to 3, m each independently represents number of bonded R 1 and represents number obtained by subtracting 1 from number of replaceable groups on Ar, and R 2 each independently represents a hydrogen atom or an alkyl group having 1 to 4 carbon atoms; and an epoxy resin (B).
A dialysis cell for sample preparation for ion chromatography, comprising a donor channel , an acceptor channel running parallel thereto and a selectively permeable dialysis membrane , wherein the donor channel and the acceptor channel are separated from one another by the selectively permeable dialysis membrane and in particular an analyte dissolved in a donor solution in the donor channel can pass through the dialysis membrane into an acceptor solution in the acceptor channel , wherein the acceptor channel has, at least sectionally, a volume V A , , which is smaller than a volume V D of the donor channel running parallel thereto; characterized in that the dialysis cell comprises two half cells between which the dialysis membrane is arranged, the donor channel and the acceptor channel each being formed as an indentation in a contact surface of one of the half cells with the dialysis membrane .
A combined display and antenna arrangement (100; 100 2 ; 100 3 ; 100 4 ; 100 5 ; 100 6 ; 100 7 ) adapted to be arranged in a wireless communication device such as a laptop, a palmtop or a mobile phone, the combined display and antenna arrangement comprising display means associated with receiving and/or transmitting elements comprising antenna elements (3A 11 , ...,3A 45 ; 3A 11 , ... ,3A 31 ; 6 4 ; 3A 11 , ... ,3A 61 ; 3A' 11 , ..., 3A' 51 ;G7;H8) for communication of radio-, millimeter wave or microwave signals, wherein the antenna elements are individually or groupwise controllable and/or feedable; characterized in that the display means comprises a functional, primary display means (10; 10 2 ; 10 3 ; 10 4 ; 10 5 ; 10 6 ; 10 7 ) and a main display means (20;20 2 ;20 3 ;20 4 ;20 5 ;20 6 ;20 7 ) , that the functional, primary display means comprises a number of first, small pixel elements (1A 11 , ...,1A 44 ;2B 1 , ...,2B 16 ; 1C 11 , ...,1C 31 ;1A;A 11 , ..., A 55 ) and comprises or communicates with image generating means (70 2 ;70 3 ;70 4 ) for generation of a high resolution miniature or compressed image, that the main display means is made of a non-conductive dielectric material which is transparent to radio-, and/or millimetre waves and/or microwaves and comprises a number of second, passive, pixel elements (2A 11 ,...,2A 44 ; 1B 1 ,...,1B 16 ; 2A 11 ,...,2A 31 ; 2A 11 ,...,2A 81 ; 2A 11 ,...,2A 91 ) substantially corresponding to the number of first, small, pixel elements, that said second pixel elements are larger than said first pixel elements, that each first pixel element is connected to a corresponding second pixel element by means of optical transmission means comprising a bundle of optical fibres (80; 80 2 ; 8 3 ; 8 11 ,8 13 ,8 22 ,8 31 ) for transfer of optical image information, that the main display means (20;20 2 ; 20 3 ;20 4 ;20 5 ;20 6 ;20 7 ) is adapted to visually represent the transferred optical information as an enlarged image and to act as the display screen of said wireless communication device, the primary, functional display means (10; 10 2 ; 10 3 ; 10 4 ; 10 5 ; 10 6 ; 10 7 ) adapted to be provided at an optional location of said communication device, and in that the antenna elements are arranged in or on the main display means (20;20 2 ;20 3 ;20 4 ;20 5 ;20 6 ; 20 7 ) and configured to receive and/or transmit radio signals through the main display means independently of optical representation.
A hinge for articulated joining between a first component and a second component ; characterised in that it comprises: - two parallel bodies , joined in a sliding manner by means of - two screws housed in a slot of each of the parallel bodies , through which they can run, enabling relative rotational and linear sliding between said first and second components , wherein each of said parallel bodies comprises - a rotation shaft , which is retained in - two supports on which they are articulated, wherein the two supports of one of the parallel bodies are arranged to be fastened to the first component and the other two supports of the other parallel body are arranged to be fastened to the second component , in order to enable collapsing between the first and second components one on top of the other; wherein the parallel bodies comprise a threaded blind hole wherein the screws are fastened, being arranged in the slots of each of the parallel bodies . - two parallel bodies , joined in a sliding manner by means of - two screws housed in a slot of each of the parallel bodies , through which they can run, enabling relative rotational and linear sliding between said first and second components , wherein each of said parallel bodies comprises - a rotation shaft , which is retained in - two supports on which they are articulated, wherein the two supports of one of the parallel bodies are arranged to be fastened to the first component and the other two supports of the other parallel body are arranged to be fastened to the second component , in order to enable collapsing between the first and second components one on top of the other;
A receiver comprising: • a receive chain configured to receive data that is formatted into a frame structure that comprises signal blocks interspersed with training sequences for assisting a receive operation; • a channel estimator configured to estimate what form a training sequence will take when it is received by the receiver; and • a subtractor configured to: ∘ subtract any part of a training sequence that is predicted by the estimate to be included in a received signal block and its adjacent training sequence from that received signal block and its adjacent training sequence to form a subtracted signal block; and ∘ zero-pad the subtracted signal block to be twice the length of the transmitted signal block and output the padded signal block for transforming into the frequency domain. • a receive chain configured to receive data that is formatted into a frame structure that comprises signal blocks interspersed with training sequences for assisting a receive operation; • a channel estimator configured to estimate what form a training sequence will take when it is received by the receiver; and • a subtractor configured to: ∘ subtract any part of a training sequence that is predicted by the estimate to be included in a received signal block and its adjacent training sequence from that received signal block and its adjacent training sequence to form a subtracted signal block; and ∘ zero-pad the subtracted signal block to be twice the length of the transmitted signal block and output the padded signal block for transforming into the frequency domain. ∘ subtract any part of a training sequence that is predicted by the estimate to be included in a received signal block and its adjacent training sequence from that received signal block and its adjacent training sequence to form a subtracted signal block; and ∘ zero-pad the subtracted signal block to be twice the length of the transmitted signal block and output the padded signal block for transforming into the frequency domain.
A peptide of formula (I), or a pharmaceutically acceptable salt thereof, C a C b C c C d C e FEX 1 SKYC f C g C h C i C j (I) wherein: the N-terminal group of the peptide is a monoradical of formula -NHR 1 , the C-terminal group of the peptide is a monoradical of formula -C(O)-R 2 ; R 1 is a monoradical selected from hydrogen and -C(O)-(C 1 -C 20 )alkyl; R 2 is a monoradical selected from -OH and -NR 3 R 4 radical; R 3 and R 4 are independently selected from hydrogen and (C 1 -C 10 )alkyl; "a" to "j" are integers from 0 to 1, provided that at least one of "a" to "j" is 1; and X 1 represents any amino acid. the N-terminal group of the peptide is a monoradical of formula -NHR 1 , the C-terminal group of the peptide is a monoradical of formula -C(O)-R 2 ; R 1 is a monoradical selected from hydrogen and -C(O)-(C 1 -C 20 )alkyl; R 2 is a monoradical selected from -OH and -NR 3 R 4 radical; R 3 and R 4 are independently selected from hydrogen and (C 1 -C 10 )alkyl; "a" to "j" are integers from 0 to 1, provided that at least one of "a" to "j" is 1; and X 1 represents any amino acid.
A camera module, comprising; a lens barrel comprising at least one lens ; and a lens holder coupled to the lens barrel , wherein the lens barrel is formed with a first adhesive portion attached to the lens holder , wherein the lens holder is formed with a second adhesive portion attached to the lens barrel , and wherein the second adhesive portion is formed with a first recess , to which at least a portion of an adhesive is applied, wherein the second adhesive portion is formed with a first protrusion , and the first protrusion is spaced apart from the first recess in a direction orthogonal to a first direction parallel to an optical axis of the lens and protrudes in the first direction; and the first protrusion is spaced apart from an inner circumference of the second adhesive portion by a predetermined distance, wherein the first adhesive portion is formed in an inner area thereof with a second recess , wherein the first protrusion and the second recess are provided so as to face each other in the first direction, wherein the first recess is disposed between an outer surface that is present outside of the first recess and an inner surface that is present inside of the first recess , wherein the first protrusion is formed on the inner surface and is provided in a ring shape along a circumferential direction of the second adhesive portion , the camera module further comprising an image sensor, wherein a height of the first protrusion is smaller than a tolerance corresponding to a distance between a top surface of the image sensor and an upper end of the lens . a lens barrel comprising at least one lens ; and a lens holder coupled to the lens barrel , wherein the lens barrel is formed with a first adhesive portion attached to the lens holder , wherein the lens holder is formed with a second adhesive portion attached to the lens barrel , and wherein the second adhesive portion is formed with a first recess , to which at least a portion of an adhesive is applied, wherein the second adhesive portion is formed with a first protrusion , and the first protrusion is spaced apart from the first recess in a direction orthogonal to a first direction parallel to an optical axis of the lens and protrudes in the first direction; and the first protrusion is spaced apart from an inner circumference of the second adhesive portion by a predetermined distance, wherein the first adhesive portion is formed in an inner area thereof with a second recess , wherein the first protrusion and the second recess are provided so as to face each other in the first direction, wherein the first recess is disposed between an outer surface that is present outside of the first recess and an inner surface that is present inside of the first recess , wherein the first protrusion is formed on the inner surface and is provided in a ring shape along a circumferential direction of the second adhesive portion , the camera module further comprising an image sensor, wherein a height of the first protrusion is smaller than a tolerance corresponding to a distance between a top surface of the image sensor and an upper end of the lens .
A solution infusion apparatus , for dialysis systems, comprising at least one main pouch adapted to contain a solution and comprising a pump configured for introducing said solution in the blood circuit of a dialysis system; at least one additional pouch that is hydraulically connected to said at least one main pouch , said pump being configured to draw said solution from said at least one additional pouch ; and means for detecting the total weight of said solution contained in said additional pouch and in said at least one main pouch ; characterized in that said additional pouch is arranged at a lower level than said at least one main pouch so that said solution contained in said at least one main pouch fills by gravity said additional pouch , and further comprises means for signaling the emptying of said at least one main pouch which are associated with said means for detecting the total weight of said solution, wherein if the means for detecting the total weight detects a weight that corresponds to the weight of the solution present in the at least one additional pouch alone, the apparatus is configured to signal this situation to the operator but keep the pump running.
A method of decoding implemented by a video decoder , comprising: receiving , by the video decoder, a video bitstream including a video parameter set, VPS, specifying one or more output layer sets, OLSs, and including a syntax element LayerIdInOls[ i ][ j ] and a plurality of layers, wherein for each layer with a value of nuh_layer_id nuhLayerId, equal to one of vps_layer_id[ k ] for k in the range of 0 to vps_max_layers_minus1, the vps_layer_id[ k ] specifies the value of nuh_layer_id of the k-th layer, the vps_max_layers_minus1 plus 1 specifies the maximum allowed number of layers in each coded video sequence, CVS, referring to the VPS; decoding a value of LayerIdInOls[ i ][ j ] equal to nuhLayerId, wherein i is in the range of 0 to TotalNumOlss - 1 and j is in the range of 0 to NumLayersInOls[ i ] - 1, wherein the TotalNumOlss specifies the total number of OLSs specified by the VPS, the NumLayersInOls[ i ] specifies the number of layers in the i-th OLS, the LayerIdInOls[ i ][ j ] specifies the value of nuh_layer_ id of the j-th layer in the i-th OLS; and decoding , by the video decoder, a picture from one of the plurality of layers. receiving , by the video decoder, a video bitstream including a video parameter set, VPS, specifying one or more output layer sets, OLSs, and including a syntax element LayerIdInOls[ i ][ j ] and a plurality of layers, wherein for each layer with a value of nuh_layer_id nuhLayerId, equal to one of vps_layer_id[ k ] for k in the range of 0 to vps_max_layers_minus1, the vps_layer_id[ k ] specifies the value of nuh_layer_id of the k-th layer, the vps_max_layers_minus1 plus 1 specifies the maximum allowed number of layers in each coded video sequence, CVS, referring to the VPS; decoding a value of LayerIdInOls[ i ][ j ] equal to nuhLayerId, wherein i is in the range of 0 to TotalNumOlss - 1 and j is in the range of 0 to NumLayersInOls[ i ] - 1, wherein the TotalNumOlss specifies the total number of OLSs specified by the VPS, the NumLayersInOls[ i ] specifies the number of layers in the i-th OLS, the LayerIdInOls[ i ][ j ] specifies the value of nuh_layer_ id of the j-th layer in the i-th OLS; and decoding , by the video decoder, a picture from one of the plurality of layers.
A base station for a communication system in which resources can be dynamically allocated at each transmission time interval on a downlink control channel, the base station comprising: means for transmitting control information in a case where first persistent scheduling is active, wherein the control information includes a sequence of bits within a field, wherein the field is configured to be used to determine a Modulation and Coding Scheme, MCS, and wherein part of the sequence is set for activating second persistent scheduling; and means for performing communication with a user equipment, UE , based on the second persistent scheduling. means for transmitting control information in a case where first persistent scheduling is active, wherein the control information includes a sequence of bits within a field, wherein the field is configured to be used to determine a Modulation and Coding Scheme, MCS, and wherein part of the sequence is set for activating second persistent scheduling; and means for performing communication with a user equipment, UE , based on the second persistent scheduling.